WO1987005727A1

WO1987005727A1 - Exercise information system

Info

Publication number: WO1987005727A1
Application number: PCT/US1987/000527
Authority: WO
Inventors: Richard Gary Schweikhardt; William Bachand; James Battell; John James Mikulsky, Jr.; Warren Bachand
Original assignee: Physio Decisions, Inc.
Priority date: 1986-03-18
Filing date: 1987-03-11
Publication date: 1987-09-24
Also published as: EP0267201A1; AU7160387A

Abstract

An exercise information system supports many types of exercise machines and instruments used in a facility or home environment. The primary elements of the system are a data communications network with a standard interface, measurement and display units, and a host computer with support software. These elements form a system organized around a data network supporting data exchange between data measurement, display, analysis, storage and reporting devices. Instruments that can measure and transmit data about exercise performance and results can be interfaced with the base components to expand the measurement collection, display, analysis, communications, storage and reporting system.

Description

"EXERCISE INFORMATION SYSTEM"

Related Applications

This application is a continuation-in-part of U.S. Serial Number 841,103 filed March 18, 1986.

Technical Field The present invention relates to exercise information systems, and more particularly, to a system for monitoring and analyzing exercise performance and results to provide accurate exercise related information for decision support, facilities management, entertainment, and the like.

Background Art

Individual exercisers often undertake exercise programs with specific objectives in mind. Some exercisers may desire to increase their strength and flexibility to improve athletic performance. Other exercisers may be concerned primarily with aerobic exercises for health maintenance. Others may exercise under the care and direction of a physician or a physical therapist as part of a rehabilitation program or program designed to maintain physical strength during aging.

Depending on the goal or goals of the exerciser, and other factors such as the exerciser's age and physical condition, an ideal exercise program or model can be devised. Such models may be dynamic, as in the case of programs designed to build strength, or constant, as in the case of programs designed to maintain a given level of fitness. Irrespective of the type of exercise program to be used, exercise information can be helpful in determining whether the exerciser is following the model program, encouraging the exerciser to perform in accordance with the standards of the model program, and to evaluate whether the model program has been properly selected for the individual exerciser or needs modification.

In this regard, there are two basic categories of information that are important: performance information and results information. Performance information describes how an exerciser is accomplishing a given task. For example, performance information can indicate whether a certain number of miles are being run each week at a given rate, whether a given amount of weight is being lifted with a prescribed form, or whether the exercise intensity is sufficient to maintain the heart rate above a threshold limit for a prescribed period. Results information shows the effect of a fitness program on the exerciser's body. Exampies include resting heart rate, body weight, percentage body fat, lean body weight and various fat levels in the blood (such as cholesterol and high density lipoproteins).

Both performance information and results information are relevant to a model exercise program. For example, a model program designed for aerobic exercise often entails maintaining the exercise intensity above a threshold heart rate (determined primarily by age) for a predetermined amount of time. A model exercise program designed for aerobics and strength building simultaneously might entail training on a circuit of exercise machines. Information needed for such circuit training would include cardiovascular endurance parameters such as heart rate, as well as data on the exerciser's form as it compared to an ideal form to guide strength building. Irrespective of the type of fitness program being used, exercise information can be helpful. For example, performance information if received while performing exercise can serve to motivate the exerciser. It is often helpful to provide this motivational information in the form of a game or as entertainment to establish and maintain the exerciser's interest. Performance information provided during exercise can also be used to improve and guide actual performance. Performance information and results information can also be used to evaluate the particular fitness program being used as well as to enable the exerciser to evaluate his or her performance and results as compared to similar individuals.

Exercise information has value to persons other than the actual exerciser. Operators of exercise facilities can use exercise information to improve facility scheduling, improve exercise program effectiveness and improve safety. For example, data on facility usage can provide the basis for scheduling customers' visits and results information collected over time and compared to established standards can indicate program improvement features. Insurance companies, government agencies, physicians, and other health care providers have a need for reliable and accurate exercise-related information. Such organizations can use exercise information to analyze the benefits of exercise and determine how exercise can best be integrated into a person's health maintenance program. Existing equipment has provided exercise information on a limited basis only. For example, individual data collection and generating devices, such as pulse monitors and watches, are currently available. Likewise, computerbased information systems which rely on manual data input of limited performance and results data are being used in some exercise facilities. Also, computer-based systems are used in some research facilities.

Prior to the present invention, there existed no system to conveniently and automatically collect exercise data in various environments and provide a means of comparing and analyzing the data and reporting it to exercisers or other persons monitoring exercise. Further, prior to the present invention there has been no system based on automatically collected data to provide exercise facilities management information to facilities managers or data to interested third parties, such as insurance companies and physicians. Disclosure of the Invention

It is an object of the invention to provide accurate, unbiased, reliable, easily understood information to exercisers, facility managers, and others in need of this information.

It is another object of this invention to provide an exercise information system that is adaptable to various exercise modes and environments. It is another object of the present invention to provide such a system which is convenient for the exerciser and exercise program manager to use.

It is another object of the present invention to provide such a system which will motivate and entertain an exerciser.

It is another object of this invention to provide a system with relatively low capital cost and the potential to reduce program costs such that the system will be cost effective. These and other objects of the invention, which will become more apparent as the invention is described more fully below, are obtained by providing an exercise information system that, in preferred embodiments, automa tically collects, measures, displays, analyzes, organizes, stores and reports exercise information and facility usage information.

The system of the present invention is a base which will support many types of exercise machines and instruments used in a facility or home environment. The primary elements of the base are a data communications network with a standard interface, measurement and display units, and a host computer with support software. These base elements form a system organized around a data network supporting data exchange between data measurement, display, analysis, storage and reporting devices. Instruments that can measure and transmit data about exercise performance and results can be interfaced with the base components to expand the measurement collection, display, analysis, communications, storage and reporting system.

The system of the present invention is designed to be used in an exercise facility or home. It can also be used in a laboratory, clinic, or testing environment. It is designed primarily to support the decision-making needs of the everyday exerciser. Such a system can support effective exercise programs throughout an exerciser's life. The system provides information that is accurate, unbiased and reliable to serve as the best possible input to decision processes. This information can be readily understood and can provide the basis for entertainment.

The preferred embodiment of the present invention, as described herein, includes the following features: (1) measurement of exercise performance and results data,

(2) analysis of measurements and calculation of additional information,

(3) display of measured data and information, (4) transfer of data and information to the host computer,

(5) collection and storage of data and information, and calculation of standards,

(6) preparation of printed reports, (7) display of summary data and information,

(8) measurement of facility usage data,

(9) preparation of facility usage and management data and information, and comparison to standards.

Brief Description of the Drawings

Figure 1 is a schematic view of a preferred embodiment of the present invention illustrating the exercise machines, major system components and the connections therebetween. Figure 2 is a schematic representation of a single MDU and its interfaces with the remainder of the preferred embodiment of Figure 1. Figure 3 is a rear elevation view of an exercise machine equipped with a Machine Data Unit (MDU) according to the present invention.

Figure 4 is a front elevation view of the front panel of the Machine Data Unit (MDU) computer, including the display.

Figure 5 is a side elevation view of an exercise machine equipped with an MDU computer according to a preferred embodiment of the present invention and illustrating the mounting of the MDU computer.

Figure 6 is a detailed view of the mounting bracket of Figure 5.

Figure 7 is a block diagram of the exercise information system. Figure 8 is a schematic of the Identification

Unit (IDU) for the system of Figure 7.

Figure 9 is a block diagram of the MDU computer for the exercise information system of Figure 7.

Figure 10 is a block diagram of the Network Control Unit (NCU) for the exercise information system of Figure 7.

Figure 11 is a block diagram of the Reception Data Unit (RDU) for the exercise information system of Figure 7. Figure 12 is a schematic of a pulse-shaping amplifier utilized in the IDU of Figure 8.

Figure 13 is a schematic of the MDU computer illustrated in Figure 9.

Figure 14 is a timing diagram illustrating the manner in which data is transferred between two microprocessors in the MDU computer of Figure 13.

Figure 15 is a timing diagram showing another method of transferring data between two microprocessors in the MDU computer of Figure 13. Figure 16 is a schematic of the Network Control

Unit illustrated in Figure 10. Figure 17 is a flow chart illustrating the function and operation of the Power-Up/Reset Module for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 18 is a flow chart illustrating the function and operation Interrupt Service routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 19 is a flow chart illustrating the function and operation of the Pulse Service Routine for the DP of the Machine Data Unit (MDU) computer.

Figure 20 is a flow chart illustrating the function and operation of the Position Sensor routine of the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 21 is a flow chart illustrating the function and operation of the Episode Start routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 22 is a flow chart illustrating the function and operation of the Idle routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 23 is a flow chart illustrating the function and operation of the Plug ID routine for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 24 is a flow chart illustrating the function and operation of the 5-lb Weight routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 25 is a flow chart illustrating the function and operation of the Lift Weight routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 26 is a flow chart illustrating the function and operation of the Button routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 27 is a flow chart illustrating the function and operation of the Repetitions routine for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 28 is a flow chart illustrating the function and operation of the Beats Per Minute routine for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 29 is a flow chart illustrating the function and operation of the Quail routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 30 is a flow chart illustrating the function and operation of the Bars routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 31 is a flow chart illustrating the functions and operation of the Quality routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 32 is a flow chart illustrating the function and operation of the Revise Quail Display routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 33 is a flow chart illustrating the function and operation of the Revise Bar routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 34 is a flow chart illustrating the function and operation of the Revise Beats Per Minute routine for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 35 is a flow chart illustrating the function and operation of the Revise Quality routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 36 is a flow chart illustrating the function and operation of the Revise Repetition routine for the data processor (DP) of the Machine Data Unit (MDU) computer.

Figure 37 is a flow chart illustrating the function and operation of the Configuration routine for the data processor (DP) of the Machine Data Unit (MDU) computer. Figure 38 is a flow chart illustrating the function and operation of the Initialization routine for the message processor (MP) of the Machine Data Unit (MDU) computer. Figure 39 is a flow chart illustrating the function and operation of the Main Routine for the message processor (MP) of the Machine Data Unit (MDU) computer.

Figure 40 is a flow chart illustrating the function and operation of the Communications Program for the host computer.

Best Mode For Carrying Out the Invention

The exercise information system of the present invention can accommodate several exercise modes and environments. The invention is described herein, however, primarily with respect to preferred embodiments designed for a specific exercise mode and environment. It is not intended to limit the scope of the present invention to these preferred embodiments, and many possible modifications of these embodiments will be apparent to those of ordinary skill in the art. It is intended that the present invention include all embodiments within the spirit of the invention as defined in the claims, including all legally equivalent embodiments. The preferred embodiment of the present invention illustrated in Figures 1-39 was designed to operate in a circuit training exercise mode and in the environment of an indoor exercise facility. The specific circuit training mode selected was one using equipment from Nautilus Sports Medical Industries, Inc., of DeLand, Florida.

These exercise machines use a variety of techniques to provide variable resistance. Each exercise machine is designed to work a single muscle group. A typical exercise session requires the use of eight to twelve different exercise machines and should be completed in twenty to thirty minutes. The exerciser is expected to work each individual muscle group to the point of momentary muscular failure before proceeding to the next exercise. Resistance levels are set to cause muscle failure to occur between eight and twelve repetitions of the exercise. In general, if more than twelve repetitions are done, the resistance is increased on the subsequent session. During a repetition, the resistance is ideally raised and lowered in prescribed time intervals in a smooth fashion, with no significant pauses at the beginning or end. Most of the exercise machines are designed for a single exercise, although several of the machines are multiple-exercise machines.

The preferred embodiment illustrated in Figure 1 includes a circuit with the following Nautilus machines (listed in circuit order): Hip and Back, Leg Extension, Leg Curl, Pullover and Torso Arm, Torso Arm, Double Shoulder, Multi Triceps, Multi Curl, Hip Abduction-Aduction. This circuit has nine exercise machines and eleven different exercises (i.e., two of the machines are doubleexercise machines. The preferred embodiment employs a modular system design. The modules are designed to interface with the data system, exercisers and exercise equipment on a retrofit basis. They are designed to be as independent as possible, thus allowing the possibility of building an information system in a step-by-step manner as needs occur and budgets permit. For example, the exercise Machine Data Unit (MDU) can operate in a stand-alone configuration without connection to the network. This configuration supports exercise measurement and display without storage, analysis and reporting.

System Description

Figure 1 is a schematic of a preferred embodiment 10 of the present invention. Individual machine data units

("MDU"s) 12 are retrofitted to previously uninstrumented exercise machines 14 to collect and display data. Exercise machines with integrated instrumentation (EMWII) (not shown) can also be connected to the system with appropriate interfacing. Each MDU or EMWII is connected to the Network Control Unit (NCU) 16 that connects the data network to a host computer 18. The host computer collects, organizes, records and reports the data. The NCU "polls" the individual MDUs and EMWIIs to obtain the data and relay these data to the host computer. The NCU acts as a controller and distributor for the data collection network. The Machine Data Unit (MDU) 12 includes a computer-based collection, transmission and display unit, referred to herein as the "MDU computer 20," a weight stack position sensor 22, an Identification Unit (IDU) 24, and associated attachment and positioning brackets (see Figures 5 and 6). The various electrical components of the MDU are connected by multiconductor cable. The MDU is connected to the Network Control Unit by conventional telephone modular cable and the network manager to the host computer with multiconductor cable. To prepare the preferred embodiment of the system to collect data at an exercise facility, the exerciser's name, age, and an identification number are entered through a keyboard 26 connected to the host computer. This data registers an exerciser on the system. Each exerciser is issued a unique identification plug 27 prior to an exercise session. This plug has a unique pair of resistors which are measured by the MDU computer. The measured resistance values accompany the exercise data as it is transferred through the network to the host computer. To organize and store the exercise data, the host computer matches the resistance measurements with the manually entered exerciser's name through a software-based table.

The system will also automatically record data using special MDUs (not shown) attached to equipment, such as weight scales or blood pressure monitors (not shown), to measure results data. When results data measuring MDUs are attached to the system, the system will provide an automat ed means of collecting, organizing, storing and reporting the decision support information needed for the exerciser and others to make informed decisions about exercise program management. It is expected that others will design and build special EMWIIs and MDUs to connect into the system as components. This decision support system can be supplemented with "expert" system software to provide informational feedback through the MDUs and EMWIIs to assist the decision maker with helpful suggestions. This information feedback can be in the form of audio, visual, and printed information.

Components Description

Machine Data Units (MDUs)

In the preferred embodiment, MDUs 12 for each exercise machine 14 consist of three major components which attach to the exercise machine. A schematic drawing of these three components of a single MDU 12 and their interfaces with other parts of the system is shown in Figure 2. The first component is a position sensor 22, which determines the position and speed of movement of the exercise machine 14 weight stack 15. The amount of weight to be moved is selected by inserting a mechanical weight selection key 26 through the weight stack. The position sensor attaches to the weight selector key with a wire 28 that is attached to a spring-loaded "take-up" reel 29 which moves an analog potentiometer as illustrated in Figure 3. The potentiometer generates an electrical signal which is sent to an MDU computer 20 by a connecting cable 31. This position sensor is capable of working with any exercise machine which uses a key-locked weight stack.

The second component is a microprocessor-based computer known as the MDU computer 20. In the preferred embodiment, the MDU computer 20 is packaged in a separate enclosure and includes two Motorola MC68705 8-bit microprocessors with associated components manufactured by Motorola Semiconductor Products of Phoenix, Arizona. One microprocessor, designated "DP" for data processor, measures the resistance of the position sensor potentiometer, measures the time between exercise heart rate pulses, and formats the display. The second microprocessor, designated "MP" for message processor, is used primarily to communicate between the DP and the Network Control Unit. Each microprocessor chip uses assembly language software created for the invention as described in more detail below.

On the back face of the enclosure for the MDU computer 20 are four potentiometers which are used to set the "start-up" parameters of the MDU. Because all MDU modules 12 are identical, these potentiometers are used to specify constants which will tailor the assembly language software for a given MDU 12 to the exercise machine. The first potentiometer specifies a unique MDU identification number which associates it with a specific exercise machine or station. This identification accompanies the other data collected by the MDU as it is transferred to the host computer. The second potentiometer determines whether the MDU will display heart rate data or energy expended data on its display. It also designates the prescribed lift and lower times of the weights. The third potentiometer is set to the position sensor value read when the weight selection pin is placed in the top weight of the exercise machine weight stack. This value is used by the MDU for computing the amount of weight lifted in any given exercise episode. The fourth potentiometer specifies the position of the weights at which the timing indicator is to begin movement. Generally, the weights are 3-4 inches above the exercise machine weight stack at the beginning of the episode and do not return to the stack until the episide has completed.

The front face 30 of the MDU computer 20 enclosure 32 includes an alphanumeric liquid crystal display (LCD) 34 and heart rate indicator lamp 36. In the preferred embodiment, this display is two rows of sixteen charac ters and shows real-time data. Figure 4 shows the specific format and type of data displayed.

As indicated above, the type of data needed by an exerciser will depend on the particular type of exercise being done. Circuit training exercisers can use the following information: the recommended speed of the exercise; the actual speed of the exercise; the number of repetitions; the quality rating or score (ranging from 0 to 99); the heart rate; and energy expended in kilocalories.

In the preferred embodiment illustrated herein, the recommended and actual speed of the exercise are displayed by a pair of linear indicators 38, 40 located on the right-hand side of the LCD. A first linear indicator, 38, on the top right-hand side of the display moves to the right at the recommended lift rate of two seconds and retracts at the recommended lowering rate of four seconds. A second linear indicator 40, is positioned directly below the first, and displays the actual movement of the weight stack. Instantaneous comparison of these two indicators allows the exerciser to establish the proper exercise speed. The number of completed repetitions is displayed in a two-character display 42 positioned at the top lefthand corner of the display. One repetition is counted for each pair of lift and lower movements. The lift stroke is counted when the movable weight of the exercise machine extends past the position designated as the upper threshold. Likewise, the lower stroke is counted when the movable weight extends below a lower threshold. The upper and lower thresholds are established uniquely for each exerciser based on the maximum position of the movable weight during the first repetition of the exercise.

An algorithm has been developed to score the repetitions for proper form and as a guide to the exerciser for controlling the exercise. The score is determined primarily as a function of the difference between the recommended and actual lift and lower times. The score 44 is displayed in the center of the top line of the display. The score is calculated by the following formula:

where: Prescribed Time = Recommended lift or lower time Actual Time = Actual lift or lower time Time Units = Tenth of a second

The lower left-hand corner 46 of the display is used to allow either the heart rate or the energy expended by the exerciser during the exercise to be displayed. The selection between these two data is made by the second potentiometer of the MDU computer. In the preferred embodiment of the system described herein, three of the MDUs measure and display heart rate. These three MDUs are placed on the first and last exercise machine in the circuit and on a machine in the middle of the circuit. All other MDUs display the energy expended during the exercise. The calculation of energy is based on an estimate from published studies of energy expenditure during Nautilus weight training.

The energy expenditure is estimated using the following formula:

[ROM*LIFTWEIGHT*REPS]

4960 where: ROM = The range of motion of the weight LIFTWEIGHT = Weight of resistance being lifted REPS = Number of times weight lifted The constant 4960 is a conversion used to calculate kilocalories from foot pounds and to relate empirical data to exercise machine measurements. The third component of the MDU 12 is an identification unit (IDU) 24, which detects pulse rate for the MDUs displaying such information and provides a receptacle for the exerciser identification plug. As shown in Figure 2, three buttons 48, 50, 52 on the identification unit are labeled "yes," "no" and "enter," and are used to answer questions presented on the MDU computer display. For exampie, when the exerciser first mounts the exercise machine, the display will ask whether a supplemental weight is on the weight stack. The exerciser responds to this inquiry by pressing the "yes" or "no" button on the box.

Connected to the IDU 24 are two hand-grip electrode sensors 54. These sensors slide over the hand-grips on an exercise machine. When the exerciser holds the grips, the electrode sensor measures the heart rate from the differential electrical signal between the exerciser's two palms. The sensor electronics resident in the IDU enclosure amplify the signal and shape it to form a digital pulse for each exerciser heart beat. This type of pulse selector was selected to mitigate any inconvenience to the exerciser associated with obtaining a reliable pulse signal. Convenience is very important in a non-laboratory environment where exercisers do not want to attach sensors to their bodies. In the preferred embodiment, the heart rate is displayed preceding or following an exercise episode, when the hand-grips are grasped with a firm but relaxed grip. The three components in the MDU 12 are preferably attached to an exercise machine with brackets 56 that are designed to be universally applied to various types of exercise machines. The brackets are modular and can be fitted together to allow proper positioning of the various MDU components. The brackets use a clamping system which permits them to be attached to the exercise machines without any changes to these machines. Figures 5 and 6 illustrate a typical MDU component mounted to an exercise machine using the brackets of the preferred embodiment. As best seen in Figure 5, an MDU computer 20, pivotally connected to an adjustable-length support bar 58 to enable viewing by an exerciser E, is preferably mounted to the exercise machine frame 61 by a bracket according to the present invention. Figure 6 illustrates the bracket connection in more detail. Three cork strips 62 engage the outer surfaces of the exercise machine frame 61. A C-shaped member 64, fabricated of 1/8-inch aluminum in the preferred embodiment, engages the opposite sides of two of the three cork strips, as best illustrated in Figure 6. The third cork strip is engaged by a plate 66 that is adjustably mounted to the interior of the C-shaped member by a nut 67 and bolt 69 combination as shown. A tube section 68 is mounted to the outside of the C-shaped member to receive the adjustable support member that holds the MDU computer. Holes 70 are preferably drilled in the tube section to enable the support member to be held in place using cotter pins.

System Block Diagram

A block diagram of the electrical system for the exercise monitoring and information system 10 is illustrated in Figure 7. Each exercise machine 14 (Figure 1) includes a Machine Data Unit (MDU) 12a, b, c . . . n which are each connected to the Network Control Unit (NCU) 16 by respective multiconnector cables 102a, b, c . . . n. Each MDU 12 includes the Machine Data Unit computer 20, the identification unit (IDU) 24, and position sensor 22, all of which have been described briefly above. The IDU 24 performs a number of functions, including the receipt of an identification plug 27 uniquely identifying the exerciser. The IDU 24 is also connected to two hand-grips 54 which are grasped by the exerciser to allow the MDU 12 to determine the exerciser's heart rate. The position sensor 22 measures the position of a weight select pin 26 inserted in the weight stack of the exercise machine 14. The position sensor 22 measures the position of the weight select pin 26 by measuring the length of wire 28 extending between the position sensor 22 and the weight select pin 26. Since the weight select pin 26 normally moves upwardly with the weights during exercise, the lowermost position of the weight select pin 26 provides an indication of the number of weights selected for the exercise, while the movement of the pin 26 from its lowermost position provides an indication of the magnitude and speed of weight movement. The Reception Data Unit 108, as described in greater detail below, designates a specific identification plug 27 as being associated with a specific exerciser. At the start of an exercise session, the exerciser is given an identification plug 27 which is inserted into the RDU 108 along with an identification of the exerciser through a keyboard, membership identification card, or the like. The exercise system 10 then associates the specific identification plug 27 with that exerciser as the identification plug 27 is inserted in the IDU 24 of each MDU 12a, b, c . . .n. The RDU 108 is connected to the NCU 16 through a conventional telephone modular cable 110.

The NCU 16 is also connected to the host computer 18 through a current loop converter 112 and pairs of wires 114, 116. The host computer 18 is a conventional general purpose computer, such as an IBM Personal Computer, International Business Machines of Ft. Lauderdale, Florida, or an equivalent.

IDU Block Diagram A block diagram of the identification unit (IDU) and ID plug 27 is illustrated in Figure 8. The ID plug 27 is a conventional three-conductor plug commonly used in the telephone field to receive signals designated as "tip", "ring," and "sleeve". The ID plug 27 includes a prong having three electrically isolated contact areas 120a, b, c that are connected to respective contacts 122a, b, c in the body of the plug 27. Resistor 124 is connected between contact 122a and a common contact 122c, while resistor 126 is connected between contact 122b and common contact 122c. When the prong 120 of the plug 27 is inserted into jack 130, contact 120c is connected to the GND output, contact 120b is connected to the IDR2 output, and contact 120a is connected to the IDR1 output. Resistor 124 is thus effectively connected between the IDR1 and ground outputs and resistor 126 is effectively connected between the IDR2 and ground outputs. The values of each of the resistors 124, 126 may be any one of a large number of discrete values. The total number of combinations of resistors 124, 126 will be equal to the square of the number of discrete possible values for each resistor 124, 126. Thus, for example, resistors are commercially available in at least 32 discrete values between 10.2 ohms and 1.2 megaohms. Under this example there are a total of 1,024 (32 × 32) possible combinations which can uniquely identify 1024 exercisers using the exercise facility at the same time. The hand-grips 54a, b are connected to a pulse-shaping amplifier 140, which is described in greater detail below. Basically, the pulse-shaping amplifier 140 is a low noise amplifier that boosts the differential signal imparted between the hand-grips 54a, b and provides a pulse having predetermined characteristics for each beat of the exerciser's heart. The pulse-shaping amplifier 140 also illuminates a light-emitting diode (LED) 142 on the face of the IDU 24 for each heartbeat.

The final set of basic components are the push button switches 48, 50, 52 for indicating respective "yes," "no," and "enter" responses in reply to inquires on the MDU computer display 34 (Figure 2). One terminal of each of the switches 48, 50, 52 is connected to ground through respective resistors 144, 146, 148. The other terminal of each switch 48, 50, 52 is connected to each other and to a common YNE output. The values of the resistors 144, 146, 148 are selected at three different values so that the resistance on the YNE output indicates which of the three switches 48, 50, 52 has been actuated. MDU Computer Block Diagram

A block diagram of the exercise Machine Data Unit computer 20 is illustrated in Figure 9. As mentioned above, the MDU computer 20 receives and processes information indicative of (1) the identity of the exerciser, (2) "yes," "no," and "enter" inputs by the exerciser, (3) the exerciser's heart rate, and (4) the position of the weight stack on the exercise machine. Finally, the MDU computer 20 stores the data that it receives and processes and transmits such, data to the NCU 16 (Figure 7) at the appropriate time.

The heart of the MDU computer 20 is the data processor (DP) computer 160. The exerciser information outputs IDR1 and IDR2 and the YNE output from the IDU 24 (Figure 8) are inputs to the data processor 160 on respective analog-to-digital (A/D) channels. A voltage divider is connected to each A/D channel. One leg of the divider is a 5.7 kohm resistor connected to a precision voltage source. The other leg is the resistance to ground provided by the input signal. The variable resistance from the weight stack position sensor 22 (Figure 2) is applied directly to a respective A/D input of the data processor 160. Basically, the data processor 160, by measuring the voltage on its input lines for a given channel, determines a binary number for the IDR1, IDR2, YNE lines, and position sensor.

As mentioned above, the IDU 24 generates a pulse having a predetermined characteristic for each heartbeat of the exerciser when the exerciser is grasping the hand-grips. This HEART pulse is applied through drivers 162, 164 to the LED 36 (Figure 9) to provide a visual indication to the exerciser of his or her heart rate. The output of the driver 162 also interrupts the data processor 160. The heart rate is calculated, then displayed digitally, as previously described.

The data processor 160 is interrupt-driven so that it suspends processing the main program and jumps to respective interrupt subroutines when either of its two interrupt inputs are triggered. The other interrupt input to the data processor 160 is generated by the message processor (MP) 170, which, like the data processor 160, is also interrupt-driven. Thus, the data processor 160 and message processor 170 can interrupt each other. The data processor 160 and message processor are also interconnected through an 8 bit A-BUS and an 8 bit B-BUS. The A-BUS is also used by the data processor to drive the LCD display 34 (Figure 2).

The most important function of the message processor (MP) 170 is to communicate with the NCU 16 (Figure 7) at the completion of an exercise episode in order to transmit to the host computer 18 data generated at each exercise machine. The message processor 170 communicates with the host computer 18 via the NCU 16 through a conventional universal asynchronous receiver/transmitter (UART) 172. The UART 172 communicates with the message processor 170 through the 8 bit B-BUS, and it also generates an interrupt for the message processor 170. Basically, the UART 172 receives serial data from the host computer 18 (via the NCU 16), stores that data, and then transmits parallel data to the message processor 170. The UART 172 also receives parallel data from the message processor 170, stores such data, and transmits corresponding serial data to the host computer 18 (via the NCU 16). Serial data from the host computer 18 (via the NCU 16) is applied to the UART 172 through a buffer 174, and the UART 172 applies serial data to the host computer 18 (via the NCU 16) through a buffer 176.

The other major function of the message processor 170 is to configure the data processor 160 according to the characteristics of the exercise machine with which it is used. As mentioned above, the MDU computers for all of the exercise machines are identical, even though the characteristics of the exercise machines vary among each other. In order to adapt the MDU computer to a specific exercise machine, four configuration potentiometers 178a-178d are adjusted to input (1) the MDU station or identification number, (2) whether the display 34 will display heart rate or energy expended, as well as to set the recommended time to raise and lower the exercise machine weights, (3) specify the location of the top weight, and (4) specify the location of the weights at which the timing indicator is to begin movement. Each of the potentiometers 178a-d is connected to a respective A/D input of the message processor 170. The message processor 170 then measures the wiper voltage of each potentiometer 178a-d to determine the information set on the potentiometers 178a-d and passes this information to the data processor 160.

NCU Block Diagram

The Network Control Unit (NCU) 16 is illustrated in block diagram form in Figure 10. The basic function of the NCU is to allow the host computer 18 (Figure 7) to sequentially communicate with each of the MDUs 12. The output of the host computer 18 is applied to an output multiplexer 180. The multiplexer 180 sequentially connects the output from the host computer 18 to each of several output lines which are connected to respective MDUs 12 (Figure 9). Similarly, the output of each MDU 12 is connected to a respective input of an input multiplexer 182. The output of the multiplexer 182 is applied to the input to the host computer 18. As indicated in Figure 7, the signals are applied to and received from the host computer 18 through a current loop converter 112 (Figure 7). The multiplexers 180, 182 are under common control of a counter 184 which sequentially selects one output multiplexer 180 and the corresponding input multiplexer 182. Thus, both the output and the input of the host computer 18 are connected to the same MDU 12. The counter 184 is incremented by an activity detector and an MDU advance oscillator 186. Basically, the activity detector and oscillator 186 monitor the lines to and from the host computer 18. In the event that data is being transmitted to or received from the host computer 18, the activity detector and oscillator 186 maintain the output of the counter 184 constant. The multiplexers 180, 182 then maintain the input to and output from the host computer connected to the MDU to which data is being sent and received by the host computer 18. In the event that the host computer 18 ceases to communicate with the MDU 12 for a predetermined period, the lack of data on the input multiplexer 180 and the output multiplexer 182 is sensed by the activity detector and oscillator 186. Activity detector and oscillator 186 then increment counter 184 so that the multiplexers 180, 182 connect the host computer 18 to the next MDU 12 in sequence for a predetermined period.

Reception Data Unit Block Diagram

The Reception Data Unit (RDU) 108, as illustrated in block diagram form in Figure 11, includes a reception processor (RP) which may be a Motorola MC68705 microprocessor. The RDU performs the function of associating a given ID plug/resistor combination with a specific individual. Accordingly, an individual inserts an identification plug 27 (Fig. 7) into a conventional jack 200. The sleeve contact of the plug 27 is connected to ground, while the remaining two contacts of the plug are connected to A/D inputs of the reception processor (RP) 202. Inserting the plug 27 in the jack 200 effectively places resistor 124 (Figure 8) between the first A/D input to the processor 202 and ground, and resistor 126 between the second A/D input to processor 202 and ground. The exerciser then places a conventional identification card 204 into a conventional identification card reader 206. The card reader 206 generates a signal on the control bus informing the processor 202 that data is present on the data bus of the card reader. The processor 202 then reads the data from the card reader 206. In response to an inquiry from the host computer through NCU 16 and buffer 210, the processor 202 outputs the identifying information contained on the card 204 and the associated ID plug value to the host computer 18 through NCU 16 and driver 212. Thereafter, and until the ID plug 27 is associated with a different identification card 204, the host computer 18 will identify the individual corresponding to card 204 as the current user of every exercise machine whose MDU is receiving that ID plug 27.

IDU Pulse-Shaping Amplifier Schematic A schematic of the pulse-shaping amplifier 140 utilized in the IDU 24 (Figure 8) is illustrated in Figure 12. The right hand-grip 54a is applied to the noninverting input of a high gain operational amplifier 300 through capacitor 302. Similarly, the left hand-grip 54b is connected to high gain operational amplifier 304 through capacitor 306. A resistor 308 having a high resistance value is connected between the hand-grips 54a, b in order to reference the amplifiers 300, 304 to each, other. The noninverting inputs to operational amplifiers 300, 304 are biased at a reference level through respective resistors 310, 312. The reference voltage is determined by voltage divider resistors 314, 316 and filtered by capacitor 318. The reference voltage is preferably about 50% of the peak output voltage of the operational amplifiers 300, 304. By biasing the noninverting inputs to amplifiers 300, 304 at 50% of their peak outputs, the outputs can swing equal amounts in a negative direction to approximately zero volts and positively to the peak output voltage of the amplifiers 300, 304. Feedback resistors 320, 322 control the gain of the operational amplifiers 300, 304 and, in combination with respective capacitors 302, 306, determine the frequency response characteristics of the amplifiers 300, 304. Since the inputs to the amplifiers 300, 304 from the handgrips 34a, b are capacitively coupled, the DC gain of the amplifiers 300, 304 are zero, thus allowing the amplifiers 300, 304 to reject DC offsets and low frequency artifact. However, since the driving point impedence of the hand grips 54a, b are limited by resistor 308, the gain of the amplifiers 300, 304 becomes flat at a relatively low frequency. At this point, the gain of each amplifier is approximately equal to the ratio of resistor 320, 322 to 50% of the value of resistor 318. Resistors 320, 322 are preferably either precision resistors or resistors that are matched to each other to ensure that the gain of amplifier 300 is equal to the gain of amplifier 304. In one operational embodiment, the gains of amplifiers 300, 304 level off at about 40 db at slightly over 0 . 1 Hz .

The outputs of amplifiers 300, 304 are applied to respective inputs of a third operational amplifier 320 through respective series combinations of resistor 322 and capacitor 324, and resistor 326 and capacitor 328. The capacitors 324, 328 once again decouple the amplifier 320 from DC offsets generated by the amplifiers 300, 304, yet level the gain of amplifier 320 at the ratio of feedback resistor 330 to resistor 326 at a relatively low frequency. Amplifier 320 is, like amplifiers 300, 304, biased at a reference voltage through resistor 332 so its outputs can swing positively and negatively by equal amounts. In one operational embodiment, the gain of amplifier 320 levels off at about 26 dB at approximately 15 Hz. In this embodiment, the overall gain of amplifiers 300, 304 and 320 thus equals about 66 dB. The output of amplifier 320 is applied through resistor 338 to the AMPOUT output of the pulse-shaping amplifier 140.

The output of amplifier 320 is then applied to a detector circuit 340, the function of which is to generate a pulse for each QRS waveform of the exerciser's ECG. As well known in the field of physiology, an ECG waveform consists of a series of waves designated the P-wave, Q-wave, R-wave, S-wave and T-wave. By far the most prominent wave of the ECG is the R-wave, which is preceded by the Q-wave and followed by the S-wave. Since the R-wave is the most prominent portion of the ECG waveform, it is used to indicate the presence of each heartbeat. One problem with triggering off the R-wave results from the fact that ECG signals have a baseline that often drifts substantially due to electrical noise. This baseline drift makes it difficult to establish a reference for comparison with the ECG waveform in order to identify the R-wave.

The detector circuit 340 solves the baseline drift problem by automatically establishing a voltage reference for each heartbeat. In the embodiment illustrated in Figure 12, the R-wave is a negative going waveform that is applied through diode 342 to pull the voltage on capacitor 344 to approximately one-half volt higher than the voltage at the lowest point of the R-wave. This reference on capacitor 344 is then applied to the positive input of a comparator 346 through resistor 348. Since the value of resistor 348 as well as the input impedance of the comparator 346 is relatively high, the comparator 346 does not substantially load the capacitor 344. Insofar as the output of amplifier 320 is also applied to the negative input of comparator 346 through resistor 350, the voltage between the inputs to the comparator 346 is approximately equal to the amplitude of the R-wave during the S-wave of the ECG waveform. This property will be true regardless of the variations in the baseline or offset of the ECG waveform. When the negative input to comparator goes positive with respect to the reference voltage on its positive input, the output of comparator 346 goes high, thereby signaling the presence of the R-wave. In the event that the baseline of the R-wave is less positive during the next R-wave, the voltage across capacitor 344 is pulled lower through diode 342. However, if the baseline goes more positive on the next heartbeat, the voltage across capacitor 344 cannot be pulled positively through diode 342. For this reason, capacitor 344 is slowly charged through resistor 352.

The detector 340 drives a maximum heart rate discriminator circuit 360 which functions to produce a heart rate pulse for each heartbeat in the event that the heart rate is below a predetermined value but to produce zero output for excessively high heart rates. The output of the detector 340 is applied through diode 362, which charges capacitor 364 each time amplifier 346 generates a positive going pulse. At the termination of the pulse from amplifier 346, capacitor 364 slowly discharges through resistor 366. The voltage across capacitor 364 is applied to a comparator 368 through resistor 370. The negative input of comparator 368 receives a reference voltage through resistor 372. The reference voltage is generated by potentiometer 374, which is manually adjusted to select the heart rate threshold at which . no heart rate pulse is produced. The threshold voltage is selected by potentiometer 374 so that it is less than the positive input to comparator 368 when capacitor 364 is being charged through diode 362 by the pulse at the output of amplifier 346. However, as capacitor 364 discharges at the termination of the pulse, the voltage across capacitor 364 eventually becomes less than the reference voltage generated by potentiometer 374. At this point, the output of comparator 368 goes high. However, as the heart rate of the exerciser increases, the period from the end of one heartbeat to the next becomes relatively small. The time between the termination of one pulse at the output of amplifier 346 to the start of the next one then becomes insufficient to allow capacitor 364 to discharge to the reference voltage selected by potentiometer 374. Under these circumstances, the output of amplifier 368 remains negative and thus does not generate a pulse for each beat of the heart.

The maximum heart rate discriminator 360 applies its output from comparator 368 to an edge detector circuit 380 which functions to generate a short, positive going pulse each heartbeat. It does this by differentiating and level shifting the output of comparator 368. Accordingly, the output of comparator 368 is applied to ground through capacitor 382 and resistor 384, which together function as a differentiator. This differentiator circuit generates a short, positive going pulse on the leading edge of the positive going pulse generated at the output of comparator 368. The baseline voltage across resistor 384 is set by a reference voltage generated by voltage divider resistors 386, 388 and filtered by capacitor 390. This reference voltage is coupled to resistor 384 through diode 392. The voltage across resistor 384 is thus equal to the reference voltage just before the start of the pulse at the output of comparator 368. On the leading edge of the pulse from comparator 368, the voltage across resistor 384 increases by an amount equal to the amplitude of the pulse from comparator 368 and then quickly discharges through the reference voltage through resistor 384. On the trailing edge of the pulse at the output of comparator 368, the negative going signal applied through capacitor 382 is clamped to the reference voltage through diode 392. The voltage across resistor 384 is thus a level-shifted differentiation of the leading edge of the pulse at the output of amplifier 368. The level-shifted differentiation of the pulse from amplifier 368 is applied through resistor 394 to one input of a comparator 396. The other input to comparator 396 receives the reference voltage through resistor 398. Comparator 396 functions to generate a square wave from the exponentially detained signal applied to its positive input through resistor 394.

Comparator 396 drives a pulse-forming circuit 400, which generates a pulse having a manually adjustable width for each pulse at the output of comparator 396. Accordingly, the pulse at the output of comparator 396 is applied to capacitor 402 through diode 404. Thus, capacitor 402 is charged to substantially the peak voltage of the pulse from comparator 396. At the end of the pulse from comparator 396, diode 404 becomes back-biased and capacitor 402 discharges through resistor 406. The voltage across capacitor 402 is applied to the positive input of a comparator 408 through resistor 410. The negative input to comparator 408 receives a reference voltage through resistor 412. The reference voltage is generated by pulse width potentiometer 414. The reference voltage is selected so that it is less than the voltage across capacitor 402 when capacitor 402 is charged by the pulse at the output of comparator 396 through diode 404. However, after a duration determined by the value of the reference voltage generated by potentiometer 414, the voltage across capacitor 402 discharges to less than the reference voltage. At this point, the output of comparator 408 once again falls to zero. Thus, the width of the pulse generated at the output of comparator 408 is inversely proportional to the amplitude of the reference voltage generated by potentiometer 414. It is thus seen that the pulse-forming circuit 400 functions in substantially the same manner as the maximum heart rate discriminator circuit 360.

The manually adjustable pulse at the output of comparator 480 is applied through resistor 420 to comparator 422, which has its negative input connected to the threshold voltage through resistor 424. The threshold voltage prevents comparator 422 from generating outputs responsive to noise signals. Comparator 422 functions as a driver circuit to illuminate light-emitting diode 142 (Figure 8) through resistor 428 each heartbeat. The pulse at the output of comparator 408 also drives a pulsing current sink 430. The output of comparator 408 is applied to the base of transistor 432, which is biased through resistors 434 and 436. Resistor 438 is connected between the emitter of transistor 432 and ground to regulate the flow of current through the transistor 432 when it is turned on. The anode of light-emitting diode 36 is connected to a positive voltage while its cathode is connected to the collector of transistor 432. Thus, on each heartbeat when comparator 408 generates a pulse, transistor 432 saturates, thereby pulling current through light-emitting diode 142. MDU Computer Schematic

A schematic of the MDU computer 20 is illustrated in Figure 13. As mentioned above with reference to Figure 9, the MDU includes two processors, a data processor 160 and a message processor 170, both of which may be a Motorola MC68705 microprocessor. The data processor 160 and message processor 170 are driven by a conventional oscillator circuit consisting of crystal 500 and. capacitors 502, 504. The 3.6862 mHz oscillator signal is also applied to the clock input of a flip-flop 506 which is biased high through pull-up resistor 508. Since the Q* output of flip-flop 506 is connected to its data (D) input, flip-flop 506 toggles, thus generating an output of half the clock frequency for use by other portions of the MDU circuitry. The data processor 160 and message processor 170 include respective internal program read-only memories (ROMs) and internal random access memories (RAMs). They also each include an internal analog-to-digital converter (A/D) which requires reference voltages. The higher reference voltage V_RH is applied to the PD5 inputs of the microprocessors 160, 170, while the low voltage reference VRL is a ground applied to the PD4 inputs to the processors 160, 170. The analog signals applied to the data processor are the ID plug signals IDR1 and IDR2, which are applied to the PD0 and PD1 inputs to data processor 160. The POS signal indicative of the position of the weight stack is applied to the PD2 input of the data processor 160. The signals indicative of the resistances of the "yes," "no, "enter" switches 48, 50 and 52, respectively, is applied to the PD3 A/D input of the data processor 160. Through internal circuitry and the program in the ROM of the data processor 160, the data processor 160 determines the identity of the ID plug 27 (Figure 8), the position of the weight stack and the identity of the "yes," "no," "enter" switch being actuated. The A/D inputs of the message processor 170 receive the signals from the configuration potentiometers 178a-d in order to program the MDU computer to the specific exercise machine with which it is used.

The data processor 160 and message processor 170 also include three sets of 8 bit buses. The PA0-PA7 port of the data processor 160 and the message processor 170 constitute the A-BUS. In the embodiment illustrated in Figure 13, the A-BUS is always used as an output from the data processor 160 and as an input to the message processor 170. The PB0-PB7 port of the data processor 160 and message processor 170 constitute the B-BUS. The B-BUS is always an input to the data processor 160, but it is used as both an input to and an output from the message processor 170. The A-BUS is biased high through a set of pull-up resistors 510, while the B-BUS is biased high through a set of pull-up resistors 512.

The message processor 170 also includes the usual power-up reset circuitry for placing the processor 170 in a known state upon power-up. The supply voltage is applied to the RESET* input of message processor 170 through a resistor 518. However, because of the presence of capacitor 520 connected between the RESET* input to message processor 170 and ground, the RESET* input remains low for a predetermined period upon power-up. After a predetermined period, the RESET* input goes high, thus allowing the message processor 170 to begin executing its internal program. A similar circuit is used to reset the data processor 160 at power-up. For this purpose, the RESET* input to the data processor 160 is connected to capacitor 521, which is normally at ground potential at power-up. This ground applied to the RESET* input of the data processor 160 thus holds the data processor 160 at reset upon power-up. Capacitor 521 then begins charging through resistor 523, and after a predetermined period, the RESET* input to the data processor 160 goes high, thus allowing the data processor 160 to begin executing its internal program.

As explained earlier, the data processor receives inputs from the identification plug 27, the weight stack position sensor 22 and the "yes," "no," "enter" switches 48-52 which are applied to the A/D inputs of the data processor 160. The data processor 160 also drives a conventional LCD display 530. The data processor 160 outputs the data to the display 530 through the A-BUS. The display 530 is also controlled by three outputs of the C port of the data processor 160. The display 530 is enabled by a high at the PCI output of processor 160, thereby inputting the data on the A-BUS into one of several registers when the read/write* input applied through the PC2 output of processor 160 is low. The data on the A-BUS is written into the register selected by the register select line connected to output PC3 of the data processor 160. The display 530 thus receives the data to be shown on the face of the display 530 in a series of 8 bit bytes on the A-BUS which are written into respective internal registers. The registers then continuously apply the data to the display circuitry.

The MDU 12 also includes a conventional random access memory (RAM) 540 that is connected to the B-BUS for use by the message processor. It will be noted that the RAM 540 contains ten address inputs in addition to a chip select input. As is common in the art, the chip select for the RAM 540 is, in effect, an additional bit of addressing. Since the buses of the processors 160, 170 are only 8 bits in length, address latches 546, 548 are provided to generate addresses of larger than 8 bits. The address latches 546, 548 are, in turn, controlled by a decoder 550.

The decoder 550 is controlled through outputs PC1-PC4 of the message processor 170. Basically, the F0-F2 signals to the decoder 550 generated by outputs PC2-PC4 of the message processor 170 select one of the eight outputs of the decoder 550. When the IOP signal (PC1 of the processor 170) to the decoder 550 goes high, the selected output of the decoder 550 goes low. When the ARL* output of decoder 550 is selected, the address on the B-BUS is clocked into address latch 548. When the ARH* output of decoder 550 is selected, the data on the B-BUS is clocked into the other address latch 546. Thus, by sequentially placing two 8 bit words on the B-BUS and selecting the clock to the address latches 546 and 548 in sequence, up to 16 address bits can be generated, although only 12 address bits are used in the embodiment of Figure 13. The CLR* inputs to the address latches 546, 548 are held high through resistor 552 to allow the address latches 546, 548 to operate. The decoder 550 also generates an RCS* pulse at its Y5 output that is used as a chip select for the RAM 540.

As mentioned above, the MDU 12 determines the heart rate of the exerciser from the pulse generated at the output of the amplifier 140 (Figure 8), which is generated once each heartbeat. The heart pulse at the output of amplifier 140 is applied through computer 560 to one of the interrupt inputs of the data processor 160. The processor 160 then jumps to an interrupt subroutine in order to service the interrupt before returning to the main program. The operation of the interrupt subroutine basically involves checking the status of an internal counter in the data processor 160. The internal counter is either incremented or decremented at a known rate so that the difference in the count of the internal counter between consecutive calls of the interrupt subroutine is an indication of the period between consecutive heartbeats.

In order to match the level at the output of amplifier 140 (Figure 8) to the level required by the interrupt input of the data processor 160, a level shifting circuit in the form of comparator 560, resistor 562, and capacitor 564 is used. Resistor 562 biases the HEART output of the amplifier 140 positively, while capacitor 564 provides filtering to prevent the data processor 160 from being interrupted by noise pulses. The negative input to the comparator 560 receives a reference voltage V_R, generated as described below. Thus, when the heart output of amplifier 140 is less than the reference voltage V_R, the data processor 160 is interrupted. When the heart signal is greater than V_R, the output of comparator 560 is high.

In addition to triggering an interrupt of the data processor 160, the leading edge of the negative going pulse at the output of comparator 560 is also applied to a driving circuit 570 for light-emitting diode 36 (Figure 9). The driving circuit 570 functions to illuminate the light-emitting diode (LED) 36 for a predetermined period each heartbeat. A percentage of the negative going pulse at the output of comparator 560 is applied to the negative input of comparator 572 through voltage divider resistors 574, 576. The negative going pulse at the output of comparator 560 is also applied to the positive input of comparator 572 through a diode 578. The positive input of comparator 572 is biased high through resistor 580 and is connected to ground through capacitor 582. Let us assume that the output of comparator 572 is positive before the receipt of a pulse from the output of comparator 560. At the beginning of the pulse of the output of comparator 560, the zero volts at the output of comparator 560 is immediately applied by the voltage divider resistors 574, 576 to the negative input of comparator 572. However, because of the presence of diode 572, the positive input to comparator 572 will remain at approximately one-half volt, thus keeping the output of comparator 572 positive until the rising edge of the pulse from comparator 560. When the output of comparator 560 goes positive, a predetermined percentage of this positive signal is immediately applied to the negative input of comparator 572. However, the positive signal at the output of comparator 560 will back-bias diode 572, thus allowing capacitor 582 to charge from zero volts through resistor 580. Thus, as soon as the positive pulse at the output of comparator 560 occurs, the negative input of comparator 582 will be greater than the positive input of comparator 572, thereby causing the output of comparator 572 to output zero volts. Comparator 572 then draws current through resistor 584 and light-emitting diode 36. After a predetermined period, capacitor 582 will charge through resistor 580 to a voltage greater than the voltage generated by the voltage divider resistors 574, 576, thereby causing the output of comparator 572 to go high and terminate the flow of current through the LED 36. It is thus seen that comparator 572 turns on LED 36 for a predetermined period upon the occurrence of each HEART pulse generated by amplifier 140 (Figure 8).

As described above, the major function of the message processor 170 is to transmit data from the data processor 160 to the host computer 18 (Figure 7). This is accomplished by transferring data from the data processor 160 to the message processor 170 over the A-BUS. The data is then transferred to a conventional, universal synchronous receiver/transmitter (UART) 586 which may be a Model SY6551 sold by Synertek, Inc., of Santa Clara, California. Basically, the UART 586 contains a transmitter shift register into which the data on the B-BUS is written in parallel. The data is then serially shifted out of the transmitter shift register to the host computer 18. Serial data from the host computer 18 is written into a receiver shift register which then applies the data in parallel to the B-BUS. Internal timing for the UART 586 as well as the serial receive and transmit clock rates are provided by the clock signal generated by the flip-flop 506.

The UART 586 is initially reset at power-up by a low applied to its RES* input by resistor 518 and capacitor 520, which are also used to reset the data processor 160 and message processor 170. A read/write R/W* input to the UART 586 is generated by a byte on the PB3 port of the message processor 170 being latched to the Q3 output of the address latch 546. A high R/W* signal causes data to be read from the UART 586 in parallel, while a low R/W* signal applied to the UART 586 allows data to be written into the UART 586 in parallel.

In a similar manner, the message processor 170 generates a chip select signal CS0 through the address latch 546 which selects the UART 586 for communication through the B-BUS. The message processor 170 also generates register select signals RS0, RS1 through the address latch 548. The register select inputs RS0, RS1 allow the message processor 170 to read and write data into various internal registers in the UART 586 through the B-BUS. These registers include the transmitter shift register and receiver shift register mentioned above, a status register used to indicate to the message processor 170 the status of various functions internal to the UART 586, a control register used to select the mode of operation of the UART 586 including word length, number of stop bits, and a command register used to control specific transmit/receive functions such as the parity bit configuration and interrupt operation. The UART 586 also receives an enable input generated at the PCS output of the message processor 170 to indicator that a B-BUS read or write operation is occurring. The B-BUS write signal is also applied to the data processor 160 and the RAM 540, but respective chip selects for the three components specify which of the three is to receive the data.

The communication between the MDU computer 20 and the host computer 18 (Figure 7) is solely through two serial data lines. There are no other signal lines coordinating the operation of the message processor 170 to the host computer 18. The UART generates an interrupt signal to the message processor when its transmit buffer is empty or when its receive buffer is full. In order to avoid losing subsequent received characters, the message processor responds to the receiver interrupt by emptying the receive buffer. To allow continuous transmission of the characters to the host computer, the message processor responds to the transmitter interrupt by leading the transmit buffer. The data from the UART 586 is applied to the host computer 18 through a comparator 588 which, through the use of voltage divider resistors 590, 592, serves a level shifting function. Basically, voltage divider resistors 590, 592 generate a reference voltage V_R (which, as explained above, is also applied to the negative input of comparator 560), to which the data being transmitted by the UART 586 is compared. Capacitor 594 is provided to prevent the comparator 588 from responding to noise. Similarly, the data from the host computer 18 is applied to the UART 586 through a second comparator 596 which also compares the incoming data stream to the reference voltage V_R. The data processor 160 and message processor 170 communicate with each other through "handshake" sequences illustrated in Figures 14 and 15. The sequence illustrated in Figure 14 is used to transfer data from the data processor 160 to the message processor 170 through the A-BUS. At time T₀ the data processor needs service (DPNS) signal is generated by the data processor 160 at its PC4 output. The DPNS signal is generated when an exercise on an exercise machine is finished and the data processor 160 thus has data available to send to the host computer 18 via the message processor 170. When the message processor 170 is able to service the request of the data processor 160 to transfer data, the message processor 170 specifies a register to read from the DP by outputing the register numbers on the B-BUS and then the message processor generates a low message processor selects data processor (MPSELDP) signal through decoder 550 at T₁. The low MPSELDP signal at time T₁ interrupts the data processor 160. Data processor 160 then services the interrupt by jumping to an interrupt subroutine which, among other things, reads the register number specified by the message processor 170 on the B-BUS and then outputs the data from the selected register onto the A-BUS. The data processor 160 informs the message processor 170 at T₂ that the data from the selected register is present on the A-BUS by generating a low B-BUS acknowledge (BBUSACK) signal at its PC6 output which interrupts the message processor 170. The message processor 170 then services the interrupt at time T₂ by recording the data on the A-BUS. After the data on the A-BUS has been accepted by the message processor 170, the message processor 170 generates a high MPSELDP signal through decoder 550 at time T₃ to inform the data processor 160 that the transfer of data from the data processor 160 to the message processor 170 is complete.

The handshake sequence for transferring data from the message processor 170 to the data processor 160 over the B-BUS is illustrated in Figure 15. When the message processor.170 is to transfer data to the data processor 160, it outputs the data to be transferred onto the B-BUS at T₀. A short time later, at T₁, the message processor 170 outputs a low B-BUS WRITE signal on its PC5 output. The message processor 170 then generates a low MPSELDP signal at T₂ through the decoder 550 which interrupts the data processor 160. Using the register number specified in the preceding transfer of data from the DP to the MP, the data on the B-BUS is then written into the data processor 160. When the transfer is complete, the data processor generates a low BBUSACK signal at T₃ on its PC6 port which interrupts the message processor 170 to inform the message processor 170 that the transfer has been completed.

NCU Schematic

The Network Control Unit (NCU) 16 (Figure 7) is illustrated in Figure 16. Reference may also be made to the block diagram of the network control unit 16 in Figure 10, wherein components that are identical in both figures are given the same reference numeral. Data from the MDUs 12 are applied to the input multiplexer 182, which connects one of its inputs to a single output, depending upon the 4 bit code generated by counter 184. The 4 bit code from counter 184 is applied through continuously enabled drivers 600. The 4 bit code from the counter 184 that specifies the MDU being accessed is also applied to the output multiplexer 180 which connects a single input to one of several outputs. The operation of the Network Control Unit is best explained sequentially from power-up. When power is initially applied, a SOFT START signal is generated by resistors 602, 604, capacitor 606, and inverters 608, 610. The input to inverter 608 is low just after power is applied to the system because of the presence of capacitor 606. The low applied to inverter 608 is reflected as a low at the output of inverter 610. Capacitor 606 then begins charging through resistor 602 and, after a predetermined period, the output of invertor 610 goes high. The low at the output of invertor 610 clears retriggerable one shots 612, 614 and 616. However, the clear is not removed until the output of inverter 610 goes high after a predetermined period, as explained above. A similar circuit consisting of resistors 620,

622, capacitor 624, and inverter 626 provides a signal that is high upon power-up but goes low after a predetermined period. The time constant of capacitor 624 and resistor 620 is greater than the time constant of capacitor 606 and resistor 602 so that the output of inverter 626 goes low after the clear has been removed from the one shots 612, 614, 616. The falling edge of the low at the output of invertor 626 is applied to the A clock input of one shot 616. One shot 616 will trigger on the falling edge of a signal applied to its A clock input as long as its B input is high, which will be the case since one shot 614 was cleared at power-up. One shot 616 then generates a positive going clock (CLK) pulse at its Q output having a duration determined by the time constant of resistor 630 and capacitor 632. This positive going CLK pulse clocks counter 184 to cause the multiplexers 180, 182 to access the next MDU 12. The CLK output of one shot 616 is also applied to the A input of one shot 612. On the trailing edge of the CLK pulse from one shot 616, one shot 612 is triggered. One shot 612 then generates a negative going pluse MDA* at its Q* output having a duration determined by the time constant of resistor 634 and capacitor 636. This negative going MDA* pulse is applied through NAND gate 638 to the output multiplexer through inverter 640 and drivers 600. The MDA* pulse is received by the MDU 12 being accessed and functions to invite the MDU 12 to send any data that it has available.

Assuming that the MDU 12 has data available to send, the data is applied to the input multiplexer 182, which then outputs the data to the host computer 18 through the NCU 16. In passing through the NCU 16, the data is applied to NAND gate 644, which applies the data to the A input of one shot 614. By the time the MDU 12 being accessed transmits such data, the MDA* pulse has terminated so that the B input to one shot 614 is continuously high. One shot 614 is then triggered at its A input by each falling edge of the data from NAND gate 644, thereby generating a negative going DMH* pulse having a duration at least equal to the time constant of resistor 635 and capacitor 637. One shot 614 is retriggerable so that as long as data is being sent to the host computer 18 by the MDU 12, the Q* output of one shot 614 remains low. Under these circumstances, one shot 616 does not get retriggered, and the counter 184 thus keeps the multiplexers 180, 182 connected to the same MDU 12. When the MDU 12 has completed sending data to the host computer 18, one shot 614 times out and the positive going edge of the DMH* pulse triggers one shot 616. One shot 616 once again generates a CLK pluse that increments the counter 184 so that the counter 184 causes the multiplexers 180, 182 to access the next MDU 12. The CLK pulse at the output of one shot 616 then generates another MDA* pulse to invite the MDU 12 to send data in the same manner as explained earlier. The data being transmitted by the MDU 12 to the host computer 18 will then keep the counter 184 from being incremented in the same manner as explained above so that the multiplexers 180, 182 continue to access that MDU 12.

Once an MDU 12 has established communication with the host computer 18 by sending data in response to an MDA* pulse, data transmitted by the host computer 18 to the MDU 12 will also prevent the counter 184 from being incremented. Data from the host computer is applied to an opto-isolator 650 having a light-emitting diode (LED) 652 optically coupled to a phototransistor 654. The collector of transistor 654 is biased high through resistors 656. Thus, current flowing through LED 652 turns on transistor 654 pulling the output of opto-isolator 650 low. Opto-isolator 650 thus functions as an isolating inverter. The data generated by the host computer 18 is applied by the opto-isolator 650 to both NAND gate 638 and NAND gate 644. Since the MDA* pulse has terminated by the time the MDU 12 establishes communication with the host computer 18, the other input to NAND gate 638 is continuously high. Enabled NAND gate 638 thus couples the data from the host computer 18 to the input of the output multiplexer 180 through inverter 640 and driver 600. The data from the host computer 18 is also coupled through the NAND gate 644 to retrigger the one shot 614 before it times out so that one shot 616 does not generate subsequent CLK pulses.

As explained above, the CLK pulse causes the counter 184 to increment the multiplexers 180, 182 to the next MDU 12. The CLK pulse generated by one shot 616 then generates the negative going MDA* pulse, which invites the MDU 12 being accessed to send data. If the MDU 12 being accessed does not send any data, the one shot 614, which was triggered by the MDA* pulse, times out. When one-shot 614 times out, the trailing edge of the DMH* pulse triggers one shot 616, which once again generates a CLK pulse to increment the counter 184 to the next MDU 12.

MDU Software

The preferred embodiment of the present invention includes computer programs for each of the microprocessors in the MDU computer 20: the data processor 160 and the message processor 170. The specific coding for these programs will, of course, vary depending on the type of microprocessors used in the MDU computers 20, and will be readily apparent to those skilled in the art from the description of the programs modules which follows.

POWER-UP RESET

The function and operation of the Power-Up/Reset Module for the data processor 160 is illustrated in the flow chart of Figure 17. The Power-Up/Reset Module initializes the data processor 160 ports for function and direction. The display 34 (Figure 9), which is exclusively controlled by the data processor 160, is initialized for number of characters (wide or narrow characters, one or two lines). RAM variables are initialized, and system interrupts are enabled. The Idle job is scheduled (see below). All jobs have "to be executed" job flags. The scheduler has bit and word pointers which point to job flags. Following initialization, bit and word job scheduler pointers are set to zero. Jobs are scheduled by related jobs. The scheduler, working on a priority basis, determines if a job is scheduled, then executes the job. If the job has completed successfully, its job flag is cleared and the scheduler resets the pointers and begins again. If a job has not completed successfully, its flag remains set and the following scheduled job is executed.

INTERRUPT SERVICE The interrupt service routine for the data processor 160 is illustrated in the flow chart of Figure 18. Upon occurrence of an interrupt (timeout, bus handshake, or heart pulse interrupt), the interrupt source is determined. If a heart interrupt, then the clock time is noted (for calculation of beats per minute), the pulse service job is scheduled, and control is returned to the previously active job or to the scheduler. On occurrence of a timer interrupt, jobs are scheduled according to the machine's mode. In the READY mode, the data processor 160 awaits weight movement; in the ACTIVE mode, weights are moving and the episode is in progress; in the CONFIGURATION mode, the special configuration plug is installed and the system is being configured.

PULSE SERVICE

The function and operation of the Pulse Service routine for the data processor 160 are illustrated in the flow chart of Figure 19. The period is computed between consecutive calls of the interrupt service routine. If the period is reasonable, then the Beats-Per-Minute job is scheduled. If not reasonable, the period is discarded.

POSITION SENSOR The function and operation of the Position Sensor routine for the data processor 160 are illustrated in the flow chart of Figure 20. The weight position channel of the processor's analog-to-digital converter is read. If the new value differs from the previous reading, then the Repetitions and Bar jobs are scheduled.

EPISODE START

The function and operation of the Episode Start routine for the data processor 160 are illustrated in the flow chart of Figure 21. This routine initializes all episode-dependent variables, such as number or repetitions, heart rate, and exercise duration.

IDLE

The function and operation of the Idle routine for the data processor 160 are illustrated in Figure 22.

This routine displays the "PHYSIO DECISIONS Press Y to begin" message and sets up the YES/NO/ENTER and TIMEOUT vectors.

PLUG ID

The function and operation of the Plug ID routine for the data processor 160 are illustrated in Figure 23. When an ID plug 27 is inserted into the IDU 24 (Figure 7), the plug's resistances are read and converted to digital form.

This routine reads the plug values and determines if the plug represents an exerciser or the Configurator. If the Configurator plug is recognized, the Configurator job is scheduled.

5-LB WEIGHT The function and operation of the 5-lb Weight routine for the data processor 160 are illustrated in Figure 24. At the beginning of the episode, the question is displayed: "Is a 5-1b weight in use?" Vectors for possible responses (YES/NO/TIMEOUT) point to specific jobs. The vectors are used by the Button job and determine which job will be executed upon pressing the designated button or occurrence of timeout. The Button job is then scheduled.

BUTTON The function and operation of the Button routine for the data processor 160 are illustrated in Figure 26. This routine continually examines the push-button switches 48-52 (Figure 8) until either a switch is pressed or a 10-second timeout has occurred. If the YES switch 48 was pressed, the job designated by the YES vector is scheduled. Likewise, the NO and ENTER switch vectors cause their respective jobs to be scheduled. If 10 seconds have passed since the button job was first executed, the job designated by the TIMEOUT vector is scheduled. The BUTTON job remains scheduled until a button is pressed or the timeout occurs.

LIFT WEIGHT

The function and operation of the Lift Weight routine for the data processor 160 are illustrated in Figure 25. This routine calculates the weight at which the weight selection pin 26 (Figure 7) is positioned based on previously established configuration information and the A/D converter reading at the beginning of the exercise episode.

REPETITIONS The function and operation of the Repetitions routine for the data processor 160 are illustrated in Figure 27. The repetition counter is incremented after the completion of a proper repetition. A proper repetition has occurred if the weights pass the lower threshold, the upper threshold, then the lower threshold again. The first repetition establishes the thresholds. The Revise Repetitions job is then scheduled.

BEATS PER MINUTE The function and operation of the Beats-Per- Minute (BPM) routine for the data processor 160 are illustrated in Figure 28. This routine calculates beats per minute based on the period received from the Pulse

Service job. It then schedules the Revise BPM/KCAL job.

QUAIL The function and operation of the Quail routine for the data processor 160 are illustrated in Figure 29. This routine provides the exerciser with a model for weight movement based on time. The timing indicator, the "quail," is moved across the display at the prescribed rate (e.g., 2 seconds right, 4 seconds left). The exerciser should keep his weight position matched to the quail position on the display in order to achieve the greatest exercise benefit. Based on time and the direction and position of the weights, the correct quail display is selected. The Revise Quail job is then scheduled.

BARS The function and operation of the Bars routine for the data processor 160 are illustrated in Figure 30. The actual position of the weights is represented to the exerciser on the display by a dynamic indicating bar. The length of the bar is proportional to the weight position.

A Bar display is selected based on the position of the weights. The Revise Bar job is then scheduled.

QUALITY The function and operation of the Quality routine for the data processor 160 are illustrated in Figure 31. The Quality routine calculates a score to guide the exerciser in controlling the rate of the exercise. The score is determined primarily as a function of the difference between the recommended and actual lift and lower times. The score is calculated by the previously described formula. The Revise Quality routine is then scheduled.

DISPLAY REVISION ROUTINES Figures 32-36 illustrate the function and operation of the various routines for the data processor 160 for revising the MDU displays. Repetitions, Quality, Quail, Bar, and BPM/KCAL are updated to the display in this group of routines.

CONFIGURATOR

The function and operation of the Configurator routine are illustrated in Figure 37. The Configurator routine allows the fitness facility operator to configure the data processor 160 for heart rate or energy expended display, MDU station identification number, position sensor value read when the weight selection pin is installed in the top weight of the weight stack, and an offset portion sensor value corresponding to the beginning of an exercise episode, and MDU identification number. The routine also allows the operator to configure the data processor 160 for the starting point of weight movement for each of his different exercise machines.

This routine displays MDU type, MDU ID, and weight position information. The displayed values are set by the small potentiometers accessible from the back of the

MDU.

Message Processor (MP) Software

INITIALIZATION The Initialization routine for the message processor 170 is illustrated in Figure 38. Message processor ports are initialized for function and data direction. That is, the ports can be used to send or receive data to and from multiple destinations. RAM variables are initialized, and system interrupts are enabled. Upon completion of the initialization, the main routine is executed.

MAIN ROUTINE

The function and operation of the Main Routine of the message processor 170 are illustrated in Figure 39. The message processor 170 loops awaiting indication from the data processor 160 that either the exercise on the attached exercise machine is complete or the configuration job is in progress. Each condition is indicated by the setting of a flag bit in the data processor 160.

Upon indication of "Exercise done," the message processor retrieves data from the necessary data processor registers which it requires to build the episode message. Upon receipt of the polling character from the NCU 16, the message processor 170 formats the episode data into a message for transmission to the host computer 18 through the NCU 16. A checksum is calculated and appended to the message. If the host computer 18 does not acknowledge the message, then the message is sent again. After three attempts, the message processor 170 discards the present message and returns to await the next set of data from the data processor 160. Upon indication of "configuration in progress," the message processor reads the four configuration potentiometers 178a, b, c, d and transfers their values to the data processor. Network Control Unit

As explained above, the central element of the data system is the Network Control Unit (NCU) 16, which is a "polling" device that periodically requests data from the MDUs or the EMWIIs. The MDUs and EMWIIs are continuously collecting data. After an exerciser has finished an exercise episode, the MDU computer 20 formats the data into a message which is sent to the NCU 16 immediately following a "poll." The NCU will maintain the link between the "polled" MDU and the host computer until neither the MDU 12 nor the host computer 18 has sent a character through the NCU for approximately 30 milliseconds. While the link is being maintained by the network manager, the MDU 12 will wait for an acknowledge character from the host computer 18. If an acknowledge character is not received, the MDU 12 will retransmit the exercise episode message up to two additional times. The NCU will then establish a link between the next MDU 12 and the host computer and generate the poll character.

The exercise system may have two configurations of NCU: master and slave. The master NCU is configurable for one to sixteen channels. Slave NCUs are configurable for one to sixteen additional channels. The maximum number of channels supported by the preferred embodiment is 64. Slave NCUs provide continuous low voltage power and poll the MDUs connected to them. When sequentially activated by the master NCU, the slave NCUs will sequentially poll up to sixteen slave channels. The repeating sequence of polls is, therefore, master channels 1 through 16, slave channels 17 through 32, slave channels 33-48, and slave channels 49-64.

The MDU computers 20 can be attached not only to the circuit training exercise machines but also to exercise bicycles, treadmills, or results measurement devices (such as scales that automatically measure and record body weight). The communications manager collects the data from the MDU computers 29 or EMWIIs and forwards it to the host computer.

Host Computer The host computer 18 organizes exercise data received from the Network Control Unit, stores it, and prepares it for printing. The host computer 18 consists of a keyboard 26, a cathode-ray tube monitor display, a printer, disk storage, and a computing unit which includes a serial, data port and a battery-backed clock/calendar circuit. The preferred embodiment incorporates the following computer: an International Business Machines (IBM) personal computer with 512 kilobytes random access memory, one flexible disk drive, one 10 mb fixed disk, the disk operating system software, a serial port, and a battery-backed clock/calendar circuit. During an exercise period, the host computer monitor is used to display a summary of each exerciser's session. Each exerciser's session is summarized on a single line on the monitor. Twenty exercisers summaries can be shown on the monitor simultaneously. The summary sessions "scroll" off the top of monitor screen when a new session is added at the bottom. Each exerciser's summary stays on the monitor for as long as it takes nineteen more exercisers to finish, which gives the exerciser adequate time to review it.

A summary report for an exerciser is printed in the evening following an exercise session. This report is provided to the exerciser at the beginning of the next exercise session. Summary reports for multiple exercise sessions can also be provided to show progress over extended periods. The software which generates these reports is described subsequently.

The host can also generate reports for the exercise facility operator. These reports can be used by the facility operator for scheduling and other facility operating decisions. This software is described below. System Computer Software

The system software includes programs in the MDU, RDU and host computer in the preferred embodiment. In the MDU computer data processor 160, an assembly language program resides in internal read-only memory (ROM) . Flow charts of the routines of this program are shown in Figures 17-37. The ROM image of this program is listed in Table I. Similarly, the message processor 170 and the Reception Data Unit reception processor have assembly language programs which reside in the internal ROM. Flow charts of the message processor programs (comprising the Initialization Routine and Main Routine) are shown in Figures 38 and 39. The ROM image of this program is listed in Table II. The software for these microprocessors was previously described above.

There are three programs resident in the host computer: an On-Line program, a Communications program, and a Report generator program. The On-Line program must run while the data collection from the MDUs is being acquired. The Report program must run periodically to provide timely printed reports for use by the exercisers and the facility operations staff. In the preferred embodiment, the report generator cannot run simultaneously with the On-Line program. The host computer programs are stored on-disk and loaded into random access memory (RAM) . The RAM image of the On-Line program, including the Communications program, is listed in Table III. The RAM image of the Report program is listed in Table IV.

COMMUNICATIONS SOFTWARE

The Communications routine for the host computer is illustrated in Figure 40. This software is resident in the host computer 18 and runs in background to the On-Line program described below. The Communications software is a receiver of the messages sent by the message processor 170 via the NCU 16. If a message was received without error, as determined by proper checksum, then an acknowledgement is sent to the NCU 16. The message elements are stored in an array for subsequent retrieval by the On-Line program.

ON-LINE PROGRAM

The On-Line program is so called because, in the preferred embodiment, the program runs full-time during fitness club operating hours. The program displays a one-line summary of each exerciser's performance on a circuit of Nautilus exercise machines. The display is similar to that of an airline terminal, with new information coming on at the bottom and old information scrolling off near the top. The top three lines of the display contain the header including column names.

A. The program inputs are:

1. Individual episodes from the MDUs via the NCU 16. Data input to the On-Line program is in the form of ten byte-pairs, each holding a binary integer. In order, the pairs represent:

1 --> (up to) 5 digit plug/personal ID number

2 --> 3 digit MDU number

3 --> 3 digit "actual resistance" - weight used, in pounds 4 --> 2 digit actual number of reps

5 --> 2 digit "avg rep time, positive" in deciseconds (e.g., 24 —> 2.4 seconds)

6 --> 2 digit "avg rep time, negative" in deciseconds 7 --> 3 digit "exercise duration" in seconds

8 --> 3 digit "avg range of motion" in percent

9 --> 3 digit pulse, beats per minute

A string of successive episodes would look like: 1,1,110,10,24,45,68,71,85

1,2,120,8,18,32,68,77,0

2,1,125,11,18,42,60,75,86

1,3,90,11,18,37,70,80,0

2,2,110,9,21,37,61,89,0

3,1,85,11,24,49,35,90,127

1,4,90,8,27,34,72,91,0

2,3,150,12,24,45,63,98,0

3,2,80,7,18,48,37,94,0

2. Another input is customer data, in a file called "IDDATA.DAT," which includes personal ID, birthday, last name, first name, sex and weight:

5,02/14/56, Bachand", "Warren", "M", 305 6,03/17/54, Bachand", "Will", "M", 100 18,02/14/45 "Battell", "Dianne", "F", 125 1,07/11/74, Battell", "James" , "M" , 200 7,03/15/52, Brown", "Michael", "M", 130 10,02/15/51 "Colson", "Claude", "M" , 175 25,07/01/28 "Dishinger", "Rhonda", "F", 102 19,11/16/49 "Dishinger", "Robert", "M", 205 11,04,15,45 "Drinkwater", "Barbara", "F", 120 13,03/09/65 "Fictitious", "Larry", "M", 245 24,04/17/40 "Funicello", "Annette", "F", 104 21,11/16/49 "Gates", "Willamena", "F", 112 20,09/24/86 "Gates", "William", "M", 145 12,09/09/55 "Griffiths", "Bea", "F", 120 8,03/12/60, Hartthrobb", "Joshua", "M", 308 9,12/02/50, Hartthrobb", "Minerva", "F", 90 34,11/09/20 "Hoist", "Gustav", "M", 156 35,11/09/39 "Hoist", "Harriet", "F",150 14,04/11/45 "Hutton", "Bob", "M" , 187 36,06/26/44 "LeBlond", "Geoffrey", "M", 160 37,07/21/51 "LeBlond", "Jeannett", "F", 100 30,12/26/54 "Maxwell", "Clark", "M", 177 31,02/28/54 "Maxwell", "Edith", "F", 120 16,09/08/24 "McKean", "Marianne", "F" , 110 15,09/08/44 "McKean", "Steve", "M" , 180 22,08/12/35 "Microrim", "Gerald", "M" , 189 17,09/24/44 "Mikulsky", "John", "M" , 170 40,09/23/41 "O'Hara", "Elizabeth", "F" , 110 39,03/15/39 "O'Hara", "Richard", "M", 164 26,04/3037, Palestrina", "Giovanni", "M", 233 29,08/12/63 "Pedersen", "Agnes", "F", 89 28,02/24/46 "Pedersen", "Martha", "F" , 98 27,05/23/35 "Pedersen", "Thomas", "M", 203 23,08/12/35 "Rosesoft", "Michael", "M", 187 32,02/28/30 "Sanborn", "Edith", "F", 179 4,11/28/01, "Schweikhardt", "Gary", "M", 153 , 5 3,11/23/41, "Smith", "Harriet", "F" , 2,04/13/40, "Smith", "John" , "M" , 198 38,09/27/49 "Warbucks", "Ann", "F" , 130 33,01/04/24 "Warbucks", "Oliver", "M" , 1040

3. The On-Line program also uses time and date, that is, an operator date/time entry on startup or a date/time memory circuit in the computer is required.

B. The program outputs are:

1. A one-line summary of each exerciser's performance on the circuit of (10) exercise machines in an on-screen report that looks like: 100* 10K*

MEMBER ACTUAL ACTUAL REP REP CKT AVG CAL CAL/ CAL/

ID RES REPS TIME+ TIME- TIME ROM BURNED LB

Smi0003 1400 09.1 02.0 04.2 21:32 85 161 73 66 Sch0004 1355 09.0 01.9 03.7 24:56 80 151 90 66 Bac0005 1370 09.3 01.5 03.9 19:47 86 160 160 1133 Bac0006 1365 09.0 01.9 04.0 20:50 85 159 70 66 Bro0007 1400 09.5 02.1 03.8 22:32 85 186 123 99

2. The ASCII file, ARCHIVE2.DAT, which looks like:

1,"Bat0001 1450 09.2 02.0 03,8 01:46 84 17347 9110511812617203-26-85 4205:06:38" 2,"Smi0002 1505 09.8 02.0 03.9 01:47 84 19817 11911112612912503-26-85 4406:06:7"

3,"Smi0003 1400 09.1 02.0 04.2 01:30 85 16185 73 81127 9014503-26-85 4307:06:57"

4,"Sch0004 1355 09.0 01.9 03.7 01:55 80 15122 90 981271210603-26-85 8308:07:07"

5,"Bac0005 1370 09.3 01.5 03.9 01:45 86 16070 120132141129 9403-26-85 2909:07:18"

6,"Bac0006 1365 09.0 01.9 04.0 01:49 85 15941 70 84100 8312603-26-85 3110:07:31"

7,"Bro0007 1400 09.5 02.1 03.8 02:33 85 18634 10312014013117203-26-85 3311:07:42"

ARCHIVE2.DAT is the compressed version of the

Session report from B.1 above, with a date, age, and time stamp; e.g., the "03-26-85 3311:07:42" from the last "ARCIVE2.DAT line above represents the date, "03-26-85", the person's age, "33", at the time of the exercise, and the 24-hour time, "11:07:42".

C. The ASCII file, ARCHIVE1.DAT, which is just the input episodes with date and time stamp:

1,1, 110, 10, 24, 45, 68, 71, 85, "03-26-85", "21: 05: 58" 1,2 ,120 ,8, 18 ,32, 68, 77,0, "03-26-85","21:05:58" 2, 1,125, 11, 18, 42, 60, 75, 86, "03-26-85", "21: 06: 00" 1,3, 90, 11, 18, 37, 70, 80,0, "03-26-85", "21:06:00" 2, 2, 110, 9, 21, 37, 61, 89,0, "03-26-85", "21:06:01"

3, 1,85 ,11, 24, 49, 35, 90, 127, "03-26-85", "21: 06: 02" 1, 4, 90, 8, 27, 34, 72, 91,0, "03-26-85", "21: 06: 02"

2, 3, 150, 12, 24, 45, 63, 98,0, "03-26-85", "21: 06: 03"

3, 2, 80, 7, 18, 48, 37, 94,0, "03-26-85", "21: 06: 03"

REPORT PROGRAM

The Report program generates the following daily and monthly reports.

A. The Daily Census Report lists in alphabetical order all exercisers for the day, with their results, from ARCHIVE2.DAT.

B. The Daily Loading Report shows numbers of exercisers as a function of time of day. The input is ARCHIVE2.DAT.

C. The Flow Pattern Report shows numbers of exercisers as a function of day and time for an entire month. At present, this program asks for the desired month on the way in. Uses ARCHIVE2.DAT as an input.

D. The Performance Summary Report lists all the session reports for an individual exerciser for a given month. The report also lists the group average values for the age/sex groups of which the exerciser is a member. The program asks for the desired month and for the exerciser's personal ID on the way in. If "ALL" is chosen instead of an individual personal ID, then a performance summary report is generated for all exercisers represented in ARCHIVE2.DAT, usually all exercisers for the last month. Inputs are ARCHIVE2.DAT and GROUPAVG.DAT. GROUPAVG.DAT is an ASCII file with sums of each of the session report elements, along with the corresponding occurrence count, for each demographic; e.g., if there were eight sessions completed by men 40-44, then the corresponding GROUPAVG.DAT record would have one field each for the sum of all eight actual resistances, all eight actual reps, all eight average rep times (pos), ...., all eight calories burned, along with the number "8" as the final field, representing. the number or count of exercisers in the 40-44 age group. Thus, the average can be found at any time by dividing the sums by the count.

E. The Group Averages Report lists the session average results for all preselected demographics. The program prints out GROUPAVG.DAT, which has been produced periodically from the previous GROUPAVG.DAT file as updated by the current ARCHIVE2.DAT file.

It is anticipated that each exerciser will have an exercise prescription entered into the host computer. When the exerciser inserts his/her identification plug 27 into the IDU, the host computer 18 will automatically send a specific prescription instruction to the MDU to guide the exerciser's decisions.

Also with exercise machines, it is important to move the weights in a specific position versus time pattern. The MDU computer software can be extended to evaluate the exerciser's gracefulness while doing heavy work. These are examples of the features that willbe added to the existing software.

The MDUs developed for the prototype were designed to operate with circuit training exercise equipment. Additional MDUs will retrofit exercise bicycles, treadmills, rowing machines and other exercise equipment. Also, MDUs can be retrofitted to weight scales, body composition instruments, blood pressure monitors and other medical instruments so that data from these results measurement devices can be automatically added to the system data base. Preferred embodiments of the system will also be able to include a variety of aerobic exercise modes. When instrumented with the MDUs, these exercise machines represent another component in the exercise facility information system. Because the exercise information system is modular, a wide variety of these MDU modules can be developed to support the system. Modularity permits data to be automatically collected and reported for most forms of exercise which use stationary exercise machines. These new MDUs will display the appropriate type of performance data required by the particular piece of exercise equipment. For example, the exercise bicycle MDU will show distance, pedal resistance, energy consumed, time and heart rate. Such data will be continuously obtained and displayed during the exercise session and fed to the host computer for storage, organization and reporting.

The design of all MDUs preferably follows the basic design of the preferred embodiment described above. Sensors are included to obtain data such as exercise machine resistance, distance or speed. This data is fed into the MDU computer, which will organize the data, provide appropriate data for display, and send the data through the network manager to the host computer. Displays are preferably relatively simple but support the exerciser's need for decision support information.

Personal Data Units

The present system can also accommodate data from non-stationary forms of exercise that can be monitored with personal data units (PDUs). The PDU is a device about the size of a hand calculator that is worn on a belt by the exerciser. Displays on the PDU show appropriate data while exercising, sensors obtain the data, and memory within the PDU records the data. The PDU will transfer the recorded data to the system host computer by means of a special connecting plug. The PDU can record running or walking distances using a digital pedometer. It also includes a heart rate sensor to be worn by the exerciser. It also has a magnetic pickup sensor which can be attached to a bicycle wheel to get distance and speed data while bicycling. The PDU includes a receptacle into which the exerciser inserts an identification plug. This plug will identify the person to the PDU. The resulting data will be identified with the particular exerciser when transmitted by the PDU to the host computer so that the data is properly recorded in the system.

The PDU will automatically obtain data for the system when an exerciser is walking, running or cycling. This will extend the capabilities of the system to these popular aerobic exercises that take place away from a stationary exercise facility. The continuity of data obtained from such non-stationary exercise forms may be needed to reinforce the decision to continue an exercise program.

From the foregoing it will be appreciated that, although specific embodiments of the invention have been described herein for purposes of illustration, various modifications may be made without deviating from the spirit and scope of the invention. Accordingly, the invention is not limited except as by the appended claims.

TABLE I

: 200500009CCD0507CC056B9BA668B709A600B704A620B700A63FB704A600B705A600B70183 : 20052000A600B705A600B781A600B780A60CB781A600B780A600B781A6FFB780A60CB78133 : 20054000B680B780A600B783A600B782A605B783A664B782A600B783A65EB782A605B78345 : 20056000B682B78281A60AB7099A81CDOE23CD05FBCDOA3BCD05659D1A41B682AE04DA1618 : 2005800025B7829BCDOD4A9AOA41FDB682AE04D4162DB7829BCDOD4A9A1441CDOF4BCDOF71 : 2005A00071CDOFA8CDOFCE15413F153F14BE15E610BE14D41625272DB615484848BB144SE7 : 2005C00097D615E5B72F5CD615E5B730A6CCB72EBD2EA100260FBE15E610BE14D4162DβE33 : 2005E00015E71020C4B614A107260CB615A103260220B63C1520B43C1420B23F163F173FC9 : 2006000041A606B749A60AB7441017814F81B61AAB01B71A240C4FB919B71924054FB91813 : 20062000B7183C1BB61BA14825413F1B054106181310132036051615B63FAB01B73F4FB95B : 20064OO03EB73E3C2514131A101613201E031β081413161312102013θ7160C1413161318F7 : 20066000131A1012102004161318131F09810316022003071623011720B61EA107221AB6D6 : 2006S0001EAlp72606B61FAlD0220EB61EA1002606B61FAlFA250212104F819BAE02CD159B : 2006A000BA9F9AB72C03161CB040B1442314B62CB1212304164120021741B62CB7211S10S5 : 2006C00014104Fe107ieOAB021A10423F5B62C20D70516EEB021A10423E820D2A606B72B8E : 2006E000CDOEE73F2BB637B72C3F2DA60AB72ECD149EB62EAB0AB72FBE2ED61635CD0ED641: 20070000B62EB12F24043C2E20EE4F81A646B72BCD0EE73F2BB627B72C3F2DA60AB72ECD1D: 20072000149EB62EAB0AB72FBE2ED616FDCD0ED6B62EB12F24043C2E20EE4F31B64AB72BEC : 20074000B64BB72CCD1592A641CDOEE7B62FCD0ED6B63OCD0ED6O317O5A62ECDOED6B631E0: 20076000CDOED64F81B626B72C3F2BCD1592A603CDOEE7B630CDOED6B631CDOED64F81B63B: 2O07800024B72C3F2BCD1592A60OCD0EE7B630CD0ED6B631CD0ED64F819BAE03CD15BA9F86: 2007A0009AB731B631B72CA6FAB72BA6FFB72DCD0CB00D412FB636A10026O3CC0830B62844 : 2007C000B72CA623B72BA62BB72DCD0CB0OD4117B632275CB632B72BA6O1B72CCD0C203FF1: 1107E00036CC08AFGC0872B628B72CA62BB72BA633BC : 2007F100B72DCD0CB00D4114B6332733B633B72BA601B72CCD0C203F36CC08AFB628B72CCF: 20081100A634B72BA63CB72DCDOCB00D4114B634270DB634B72BA601B72GCD0C2O3F36CCAC: 2008310008AFB628B72CA6FBB72BA6FFB72DCDOCBOOD416AB635A10027643A36B636A100CE: 20085100265COE4102200801160220030B164FB635274BB635B72BA601B72CCDOC20CC085F: 20087100AFB631B72CA..23B72BA62BB72DCD0CB00C412BB631B72CA62BB72BA633B72DCD86: 200891000CB00C4119B631B72CA634B72BA63CB72DCD0CB00C4107A6FFB731CC07A3B63112: 2008B100B7284F810216050S16024F81011739A6A8B72BA6COB72CB61EB72DB61FB72ECD64: 2008D10014DEB62BA1002S08B62CA11E2317200AA1012611B62CA12D240BB62BB74AB62CE4; 2008F100B74BCC096DCC096F0317733F2BB63BB72C3F2DB620B72ECD149EB62DB72CB62E44 : 20091100B7313F2B3F2DB624B72ECD149EB62DB74AB62EB74B3F2BB631B72C3F2DB624B7CF : 200931002ECD149EB62DB72BB62EB72CB62BBB4BB72F4FB94AB72EB62CB730AD23AD21AD55 : 200951001FB62FB72BB630B72CA602B72DA66CB72ECD14DEB62BB74AB62CB74B1E104F81D1 : 20097100342E362F363081B621B0232B04A10222053F27CC09CBB621B023B72C3F2B3F2DAC : 20099100A60AB72ECD149EB62DB72BB62EB72C3F2DB63BB72ECD14DEB62CB727B62BA10063 : 2009B10023022012B627A1012406A600B727200AB627A1092304A609B72716104F81B64E43 : 2009D100B72BB64FB72C3F2DB624B72ECD14DEB62BB74EB62CB74FB650B72BB651B72C3F73 : 2009F1002DB624B72ECD14DEB62BB750B62CB7511841B682AE04DA1625B7829BCD0D4A9A7F : 200A11001βllA60BB734A60BB735A664B7364F81A6FF084114B682AE04D4162DB7829BCDFA : 200A31000D4A9A9BCD0A3B9A4FS13F103F113F123F133F183F193FlA3FlBAβ01B7163F370F : 200A51003F253F273F243F363F203F4AA6FFB721B728A650B73B18114F81B636264C3F34ED : 200A7100A60CB735A6FFB73604171BA610B7323F33CD0DF9BE2ED617C1CD0E0BB62EA11FF7 : 200A910027213C2E2OEEA611B732A612B733CD0DF9BE2EDS17E1CD0E0BB62EA11F27O43CC5: 200AB1002E20EE3F163F1610164F819BAEOOCD15BA9F9AB72B9BAE01CD15BA9F9AB72CCD7A: 120AD100OB2DB62BA1632602201EB629A1632718A608CO :200AE300B72DA60DB72ECD0B1B0D41061441101320241E41202005411615411717B682AE0F : 200B030004D4162DB7829BCD0D4A9A194116110F41041F4112134F81B629B12D2609B62A2F : 200B2300B12E26031C41811D41813F2E3F30B62BB72FB62EA11F2439BE2ED61872B12F24F9 : 200B43002C5CD61872B12F2524BE30B62E4C07160AE1292706A16327022002E729B630269A : 200B630021A601B730B62CB72F3F2E20C53C2E20C10F4106A663B72B2017A663B729B72A1C : 200B8300200F06160CB629B72DB62AB729B62DB72A81B63S2β2ACD0DF9BE2ED61801CD0E6E :200BA3000BB62EA 11 F27043C2E20EEA60FB732A60EB733A60BB734A60BB735A664B7364F25

:200BC300813F209BAE02CD15BA9F9AB740B721BB44B723B621B038B72FCD0BF7BE2ED6181C

:200BE30059B7203F363F244F81CD0BC4B620AB05B7204F813F2EB62EA116241CBE2E5CD6EB

:200C03001841B12F240E5CD61841B12F2506B62E4CB72E813C2E20DEA618B72E81B62BA12C

:200C230008241EB62CA101260CBE2B8610DA1625B710CC0CAFBE2BB610041625B710CC0C42

:200C4300AFA1102422A008B72BB62CA101260GBE2BB611DA1625B711CC0CAFBE2BB611D413 :200C6300162SB711CC0CAFA1182422A010B72BB62CA101260CBE2BB612DA1625B712CC0C39

:200C8300AFBE2BB612D41625B712CC0CAFA018B72BB62CA101260CBE2BB613DA1625B713B1

:200CA300CC0CAFBE2BB613D41625B71381B62CB12B2507B12D22031C41811D41813133355B

:010CC30036FA

:200CC400B68343A480262101171E0316022003071616B61AB01DB71FB619B21CB71EB61ACD

:200CE400B71DB619B71C1411BE8281B681B74CB682B74D0F4C034F20080E4D034F2002A6D4

:200D0400FF2640B682A4012709BE01BF43F6B780200SBE43B601F7B682A4BFB782A61CB74E

:200D240081B681B74CB682B74D0F4C034F20080E4D034F2002A6FF27E8A60CB781B682AA94

: 1B0D440040B782B68081CD0CC4CD0CEF81CD0CC4CD0CEF80CD060E803931329C

:200D5F00B636A1002608B620A10026051A11A6FF81AD03CC0DDDCD0DF9BE2ED61761CD0E78

:200D7F000BB62EA11F27043C2E20EE81B636A1002608B620A10026051A11A6FF81CD0DF900

:200D9F00BE2ED61781CD0E0BB62EA11F27043C2E20EECC0DDDB636A1002608B620A100269F

:200DBF00051A11A6FF81CD0DF9BE2ED617A1CD0E0BB62EA11F27043C2E20EECC0DDD3F1639

:200DDF0012163F323F33A60BB734A60BB73SA664B736B641A401B7414F819BCD0E3B9AA664

:200DFF000FB72C4FCD0EE73F2B3P2E81CD0ED6B62BB12C27033C2B81A640B72BCD0EE7Λ6C8

:200E1F004FB72C81CD0E71A638CD0E53A60CCD0E53A601CD0E53A680CD0E53819BBE82BF84

:200E3F004DA60lCD0E53A680CD0E53864DB782CD0D4A9A81B780A642B782A640B7S2CD0E50

:200E5F007181B780A648B782A64AB782A648B78220E8A600B781A600B780A60CB781A60080

:200E7F00B780A600B781A600B780A60CB781B680B780A644B782A646B782B680A48026FA4S

:200E9F00A644B782A640B782A600B781A600B780A60CB781A600B780Λ600B781A6FFB780B5

:200EBF00A60CB781B680B780819BBF4CBE82BF4DCD0E53B64C200S9BBE82BF4DCD0E61B61B

:1E0EDF004DB782CD0D4A9A819BBE82BF4DAB80CD0E53B64DB782CD0D4A9A81393437D1

:200EFD000617191617CD0DF93F2EBE2ED61821CD0E0BB62EA11F27043C2E20EE1A41B68277

:200F1D00AE04DA1625B7829BCD0D4A9A0A41FD161218121A121C121E12044111B682AE04F7

:200F3D00D4162DB7829BCD0D4A9A17174F81054121B638A4FEB738B72C3F2BCD1592A6425E

:200F5D00CD0EE7B62FCD0ED6B630CD0ED6B631CD0ED64F8105412AB6494444B749B72C3F04

:200F7D002BCD1592A60ACD0EE7B630CD0ED6B631CD0EDSB6494444B72CB617A4F8BA2CB7A4

:200F9D00174F810A0A141414282828054121BS44A4FEB744B72C3F2BCD1592A647CD0EE717

:200FBD00B62FCD0ED6B630CD0ED6B631CD0ED64F8105411GB6484444B748B72C3F2BCD1569

:200FDD0092A604CD0EE7B630CD0ED6B631CD0ED64F810541259BAE02CD15BA9F9AA4FEB713

:200FFD002C3F2BCD1592A64CCD0EE7B62FCD0ED6B630CD0ED6B631CD0ED64F8131313234B9

:20101D00021603CC10590741301316141618169B3F183F193F1A9A3F1C3F1D3F1E3F4E3F4D

:20103D004F3F503F513F523F533F3F3F3EA6FFB7363F353F253F241211CC1291041603CCBF

:20105D00125C04171DA641CD0EE7A620CD0ED6A620CD0ED6A620CD0ED6A620CD0ED6131025

:20107D001F10081603CC10C0064135B644AB08B72BB621B040B12B2327B621B72219161A76

:20109D0016CD1293B63CB72BB63DB72C3F2DA648B72ECD14DEB62BB74EB62GB74FCD12BF97

:2010BD00CC12300A1603CC114C064103CC11493F343F353F36B644AB08B72BB621B040B7E0

:2010DD002CB62BB12C2365B621B723B622B023B73B3F2BB63BB72C3F2DA60AB72ECD14DE35

:2010FD00B62BB72DB62CB7423D4226023C42B623BB424CB73AB622B0424AB7393C24121174

:20111D00CD1293B63CB72BB63DB72C3F2DA648B72ECD14DEB62BB750B62CB7511B16114143

:20113D001241B63AB13923043F161216CC12300D1675B63AB 1212306114112411D16B62181

:20115D00B139232D134110411D16CD1293B63CB72BB63DB72C3F2DA648B72ECD14DEB64E42

:20117D00B72DB64FB72ECD1478B62BB74EB62CB74FB621B122232EB621B722B622B023B750

:20119D003B3F2BB63BB72C3F2DA60AB72ECD14DEB62BB72DB62CB7423D4226023C42B6225C

:2011BD00B0424AB739206C0F1647B621B1392308134110411F162037B63AB12123313C245B

:2011DD001211114112411F16CD1293B63CB72BB63DB72C3F2DA648B72ECD14DEB650B72DF1

:2011FD00B65lB72ECDl478B62BB750B62CB751202201410FB639B12123071E161141CD12D8

:20121D00BF2010034I0DB621B13A23071C161341CD12BFB640B12125230A160E3F161616A2 :20123D00A619B734A619B7352008A60BB734A60BB735A664B7363F373F251C10CC1291θ768

:20125D00163207412F3F363F25141617161C161341CD12BF04171DA641CD0EE7A620CD0EDC

.20127D00D6A620CD0ED6A620CD0ED6A620CD0ED613101F104F819BB619B72BB61AB72CB63F

:20129D001DB72DB61EB72ECD148BB62BB73C862CB730B618B01CA10123043F3C3F3D9A105D

:1512BD0010819BB618B71CB6l9B71DB61AB71E9A813130363025

: 2012D2000316023F370716023F37B649A4034897074105D60FA02003D60FA1B72C3F2B3F4A

:2012F20020A60AB72ECD14DEB625B12C2403CC1369091612A609B1372308B637AB01B737BA

:201312002004A609B7370B1612A613B1372308B637AB01B7372004A613B7370D1612A609C5

:20133200B1372308B637AB01B7372004A609B7370F1612A613B1372308B637AB01B7372096

:1D13520004A613B737014106A60AB73720050341023F371C103F254F8131303539DD

:20136F00B649A40348974F01410343200A0F16034320040B160143A1002305D60FA0200472

:20138F005CD60FA0B72C3F2B3F2DA648B72ECD149EB62DB72FB62EB730B62FB72BB630B75A

:2013AF002CB63CB72DB630B72ECD148BB62BB72DB62CB72E4F49A100230F3F2B3F2CCD142B

:2013CF008BB62BB72DB62CB72EB62F44B73CB63046B73DB63CB72BB63DB72CCD148B4F49FD

:2013EF00A1002304A600204AB63CB72FB63DB730CD1460B62FB73CB630B73DB62BB72FB6E4

:20140F002CB730CD1460B62FB72BB630B72C3F2DA664B72EC0149EB62DB72BB62EB72CB6BD

:20142F003CB72DB63DB72ECD14DEB62CA1632302A663B7263F2BB626B72CB652B72DB653D7

:20144F00B72ECD_.478B62BB752B62CB75310114F81B62F44B72FB63046B730B62F44B72F47

:09146F00B63046B730813935373B

:20147800C6002CCB002EC7002CC6002BC9002DC7002B81C6002CC0002EC7002CC6002BC29β

:20149800002DC7002B813F2F3F30AE1198362F3630362B362C24139aC6002EC90030C7004F

:2014B80030C6002DC9002FC7002F5A26E0C6002BC7002DC6002CC7002EC6002FC7002BC62A

:2014D8000030C7002C813F2F3F30A610C70031392C392B3930392FC60030C0002E97C600EA

:2014F8002FC2002D2509C7002FCF003θ992001983A3126DB392C392B815FA6FFC7002D3C57

:201518002DC6002CD01558C7002CC6002BD21557C7002B2AEAC6002CDB1558C7002CC6003C

:201538002BD91557C7002BC6002D5D260054D7002E585C5CA30626C2C6002CC70031810353

:20155800E80064000AA6D6C7002BA6D7C7002EA681C700315ACD002B5D26F981C7002BA439

:201578000FAB30A13A2302AB0797C6002B44444444AB30A13A2302AB0781CD1511C6002E2A

:20159800AB30C7002EC6002FAB30C7002FCe0030AB30C70030C60031AB30C7003181343125

:0215B8003832C7

:2015BA00B600A4F8B7009FBA00B70016001800170019000E00FD0F00FDCE0100813130349E

:0115DA0031DF

: 0A15DB00C70046CF004781353430C9

:2015E500136F08B50978070C101D12D206DC073C0765077F066E0A210A6B0B950BC40BEC71

:201605000D5F0D8B0DB40F4B0F710FA80FCE0FEF0EFD09CF069B07990ABC060C060C060C74

:201625000102040810204080FEFDFBF7EFDFBF7F3E2020202020202020202D3E2020202064

:20154500202020202D2D3E202020202020202D2D2D3E2020202020202D2D2D2D3E202020B6

:2016650020202D2D2D2D2D3E202020202D2D2D2D2D2D3E2020202D2D2D2D2D2D2D3E202021

:201685002D2D2D2D2D2D2D2D3E202D2D2D2D2D2D2D2D2D3E2020202020202020203C202010

:2016A5002020202020203C2D202020202020203C2D2D2020202020203C2D2D2D2020202083

:2016C500203C2D2D2D2D202O202O3C2D2D2D2D2D2O2O2O3C2D2D2D2D2D2D202O3C2D2D2DAB

:2016E5002D2D2D2D203C2D2D2D2D2D2D2D2D3C2D2D2D2D2D2D2D2D2D2A2020202020202092

:2017050020202A2A20202020202020202A2A2A202020202020202A2A2A2A2020202020206A

:201725002A2A2A2A2A20202020202A2A2A2A2A2A202020202A2A2A2A2A2A2A2020202A2ADC

:20174S002A2A2A2A2A2A20202A2A2A2A2A2A2A2A2A202A2A2A2A2A2A2A2A2A2A303020305A

:2017650030203E2020202020202020202020202020202A20202020202020202030302030FC

:2017850030203E2020202020202020202045583120202A202020202020202020303020306E

:2017A50030203E2020202020202020202045583220202A20202020202020202050485953B9

: 2017C500494F204445434953494F4E535052455353205920544F20424547494E5052455323

:2017E50053205920464F5220455831205052455353204E20464F52204558322049532041F5

:2018050020352DGC6220574549474854204F4E2054484520535441434B3F20202020202038

:201825003030202020203030202020202020303030202030303020203030302004080C102B

: 2018450014181C2024282C3034383C4044484C5054585C60FAF0E6DCD2C8BEB4AAA0968CD7

:2018650082786EG45A50463C32281E140A000104080D12171D242C353F4A5663707E8C 999B

:10188500A6B2BEC8D1 DAE 1E8EEF3F7FBFE393G378A :0A 1 FF60005000D580D51050005000F :00000001FF TABLE II

:200500009CCD0507CC056B98A6G8B709A600B704A620B700A63FB704A600B705A600B70183

: 20052000A6FFB705A600B781A600B780A60CB781A600B780A600B781A600B780A60CB78133

:20054000B680B780A600B783A600B782A605B783A600B782A600B783A63EB782A605B783C9

:20056000B682B78281A60AB7099A81CD0574C00565CC05CA3F343F353F433F443F423F3CFE

:20058000B602B7193F1D3F1F3F213F2EB603B72FA618AE03C0088SA602AE02CD088S4FAE35

:2005A00000CD0885AE04CD087BB713AE05CD087BB714AE05CD087BB7153F363F373F4D3FC2

: 0A05C0004E3F4F3F4981313834317E

:2005CA009D9D200DB632A1012503CC065D3C3220073F324FA10122F2200DB633A1072503D8

:2005EA00CC06SA3C3320073F334FA10722F2BE32E634BE33D40BAE27S4B632484848BB3301

:20060A00B71048BB1097DD0616CC0646CC0994CC0BA4CC0A2FCCθ8F8CC0AAFCC0BA2CC0BC1

:20062A0096CC0B9CCC0B98CC0B9ECC0B9ACC0BA0819D9D819D90βl90908l9D9D260FBE33C9

:1A064A00D60BAEBE3243E434E734CC06SDCC05E4CC05CECC0SCC34343732B0

:200664003C36B636A14825063F3616341234CD0BA65FC0068DA10326003C38B638B13A2549

: 20068400051137CD0B801F09816F38060BB643B43758DA0BAEB73781CD068FCD08S181D663

:2006A4000BB643B437B73781CD06A3CD083681E73AB637DA0BB6B73781D60BB6B437813883

:0206C4003935C6

:2006C600B68143A440264FB680B74AA61CB781A600B7823F4BB68143A44027063C4B3D4B0D

:2006E60026F3A60CB781B649A1002608B64AB74719372022B649A1012606A602B7492016E8

:20070600B649A10226063F491937200AB64AB447B747A602B749B68081B683B74AB682B782

:200726004B0F4A034F20080C4B034F2002A6FF2703CC08339D9DAE0SCD087BA4082603CC16

:200746000802AE04CD087BB74AB64EA1002403CC07ADA1022303CC07ADA000B71048BB1077

:2007660097DC076ACC0776CC0783CC079ACC07ADB64AA1022604A601B74ECC07ADB64AA169

:2007860003260AA602B74ESFCD06A32004A600B74ECC07ADB64AA1FC260DA600B74E3F4D48

:2007A600A601AE02CD0885B64DA1002621B64AA10226063C4D3F4F2015B64AA10626065F4A

:2007C600CD06A32009B64AA1FC2603CD0B0SB64DA10026022026B64DA1142618B64AA10325

:2007E600260EB64FA10026041A3420023F4D20023F4D2008B64AB84FB74F3C4DAE05CD08FF

:200806007BA4102719B64EA1022610B64AAE00CD0885A605AE02CD08852003CD0B5AAE05C1

:20082600CD087BA4982603CC0833CC073CBE82819BA602AE02CD0885AE04CD087BAE0SCD57

:20084600087BAE05CD087BBE829A819BA601AE02CD0885CD071F9A81B7491A37B649A10264

:20086600260AB647B701A60EB7822008B648B701A62EB7a281CD0893CD08GDCD089D81B7S0

:200aa60010CD0893B610CD08C2CD089D81A608CD08A49FCD08B381974FCD08A49F81B70184

:2008A600A608B782A60AB782A608B78281B701A604B782A606B782A604B78281B701A62098

:2008C600B782A600B782814FB705A620B782B60197A6008782A6FFB7059F81AE02CD068FAF

:150SE600B613AE02CD085ECD06C6AE02CD06A320EA31313831BD

:2008FB00CD0BA6AE030D06BDA1002703CC098E3D43260AB682A4012704A601B743B643A1FD

:20091B00012403CC098BA1022303CC098BA001B71048BB1097DC0933CC093CCC0961CC09C5

:20093B008BCD0BA6AE02CD06BDA1002614AE02CD068FA641B748A600AE02CD085EA602B798

:20095B0043A601CC098BCD0BA6AE02CD06BDA120261CAE02CD06A30947063D42260210340A

:19097B000B47063D44260214343F434F2002A601CC0990A601813839364C

:20099400B64244B7138642A401263CCD0BA6AE02CD06BDA100262CAE02CD068FB642A120C2

:2009B4002611A641B748A6EFB747A603AE02CD085E200EBE13D60A0BB748A600AE02CD08D3

:2009D400SE3C42A601202FCD0BA6AE02CD06BDA1202623AE02CD06A33C42B642A1222607DD

:2009F4003F4218344F200BB647BE13DE0A1BE719A6012002A601812A2920244F4ES1S03FC6

:1B0A14003E3B494B4A535201020507090A0B0C000E0F10111213143334373838

:200A2F00B64444B713B644A4012649CD0BA6AE02CD06BDA1002639AE02CD068FB644A1081E

:200A4F002611A641B74aA6DFB747A603AE02CD085E201BBE139BBE13CD0BE29F9AS3BF4797

:200A6F00BE13D60AA8U748A601AE02CD085E3C44A6012024C00BA6AE02CD06BDA12026165F

:200A8F00AE02CD06A33C44B644A10A26053F444F2002A6012002A60181484938443939313C :200AAF00AE03CD069CCD03A65FCD06BDAl002643CD0BA6AE02CD06BDA10026339BAE00CDC2

:200ACF000BE29F9A434444B71C4F200AA3142503CC0AF05C2006AE01A31422F4E819CC0A50

:200AEF00DBB72E5FCD068DAE02CD068F4F2002A6012002A60181CD0BA65FCD06BDAl0127BE

:200B0F0003CC0B91200DB630A1022503CC0B833C3020073F304 FA 10222F25FC0068DA69026

:200B2F005FCD06B3200DB631A1162503CC0B7F3C3120073F314FA11622F2BE31 E619AE00BE

:200B4F00CD0885A605AE02CD088581CD0BA6AE06CD06BDA10126094FAE00CD088581200D5E :200B6F00A601AE02CD08854FAE00CD0885CC0B3581CC0B155FC006A3AE02CD06A3AE03CD6C

:070B8F0006AC813338303160

:020B96004F818D

: 020B98004F818B

:020B9A004F8189

:020B9C004F8187

:020B9E004F8185

:020BA0004F8183

:020BA2004F8181

:020BA4004F817F

:080BA600B711BF128137383886

:0C0BAE000102040810204080030C30C03D

:200BBA00CD06C6CP0BA6AE02CD06BDA1302604BE822003CD071FB649A1022603CD085E80F5

:200BDA00CD066480313S3730B600A4F8B7009FBA00B70016001800170019000E00FD0F00E6

: 050BFA00FDCE010081A9

:0A1FF60005000BDA0BBA05000S0028

:00000001FF

TABLE III

The ' On-Line' Program - PDI.EXE

0E2E:0100 02 00 CD 3D 0A CD 9D 87-CD 3D 13 CD B1 87 8B 1E ..M=.M..M=.M1...

0E2E:0110 4C 0C CD 9D SS CD 81 CD-B1 88 CD A5 C3 E9 2F 00 L.M..M.M1.M%Ci/.

0E2E:0120 BF 8C 63 BE 4E 0C CD B2-BB 1A 00 CD 3D 03 8B DE ?.c>N.M2; ..M=..^

0E2E:0130 CD BC 8B F3 CD C6 BF 90-63 CD BC BF 94 63 CD AC M<.sMF?.cf<?.cM,

0E2E:0140 CD A2 8B D3 BB 98 63 B9-09 00 CD 3D 0A 93 C3 E9 M".S; .c9..M=..Ci

0E2E:0150 2F 00 BF 8C 63 BE 52 0C-CD B2 BB 1A 00 CD 3D 03 /.?.c>R.M2;..M=.

0E2E:0160 8B DE CD BC 8B F3 CD C6-BF DC 63 CD BC BF 94 63 .^M<.sMF?\cM<?.c

0E2E:0170 CD AC CD A2 8B D3 BB E0-63 B9 03 00 CD 3D 0A 93 M,M".S; 'c9..M=..

0E2E:0180 C3 BF 98 2F BE FA 63 CD-A6 BF 9C 2F BE FE 63 CD C?./>zcM&? />~cM

0E2E:0190 A6 BF A0 2F BE 02 64 CD-A6 BF A4 2F BE 06 64 CD &? />.dM&?$/>.dM

0E2E:01A0 A6 BF A8 2F BE 0A 64 CD-A6 BF AC 2F BE 0E 64 CD &? (/>.dM&?,/>.dM

0E2E:01B0 A6 BF B0 2F BE 12 64 CD-A6 BF B4 2F BE 16 64 CD &?0/>.dM&?4/>.dM

0E2E:01C0 A6 BF B8 2F BE 1A 64 CD-A6 BF BC 2F BE 1E 64 CD &?8/>.dM&?</>.dM

0E2E:01D0 A6 BF C0 2F CD A6 BF C4-2F BE 22 64 CD A6 33 DB &?@/M&?D/>"dM&3[

0E2E:01E0 CD 3E 3C 33 DB CD 3E 50-CD 3E 50 CD 3E 52 BB 26 M><3[M>PM>PM>R;&

0E2E:01F0 64 BA 00 FC CD 3E 1B C7-06 08 62 00 FC CD E6 BB d: . ;M>.G..b. Mf;

0E2E:0200 34 64 CD 99 CD E6 BB 38-64 CD 99 B8 0A 62 50 B8 4dM.Mf;8dM.8.bP8

0E2E:0210 0C 62 50 B8 0E 62 50 B8-10 62 50 B8 12 62 50 B8 .bP8.bP8.bP8.bP8

0E2E:0220 14 62 50 B8 16 62 50 B8-18 62 50 CC 00 00 00 00 .bP8.bP8.bPL.. ..

0E2E:0230 1E 07 FC E8 BE 0D E8 32-0E E8 E6 0E E8 71 0E BB .. !h>.h2.hf .hq.;

0E2E: 0240 58 64 CD E0 00 CD E2 01-07 BB 1A 62 CD E3 BB 1A XdM .Mb..;.bMc;.

0E2E: 0250 62 BA 01 00 8B CB CD 3D-0B 93 BB 6E 64 CD 8D 89 b:...KM=..;ndM..

0E2E: 0260 56 FE BA 00 00 75 01 4A-8B D9 8B C2 8B 56 FE CD V~:..u. J.Y.B.V~M

0E2E:0270 3D 0B 93 SB D3 BB 74 64-CD 8D B9 00 00 75 01 49 =...S;tdM.9..u.I

0E2E: 0230 0B CA 23 C9 74 03 E9 18-00 33 DB CD 3E 50 BB 01 .J#It.i..3[M>P;.

0E2E:0290 00 CD 3E 50 SB D3 BB 02-00 CD 3E 50 SB DA CD 3E .M>P.S; ..M>P.ZM>

0E2E:02A0 52 BB 0F 00 CD 3E 33 BB-0C 00 CD 3E 33 SB D3 BB R; ..M>3; .. M>3.S;

0E2E:02B0 06 00 CD 3E 35 CD 3E 31-8B DA CD 3E 42 BB 1B 00 ..M>5M>1.2M>B;..

0E2E:02C0 CD 3E 44 CD E6 BB 7A 64-CD 99 BB 98 64 BA 1E 62 M>DMf;=zdM.; .d: .b

0E2E:02D0 CD BC BB EB 64 BA 22 62-CD SC CD 3D 23 BA 02 00 M. ;hd:"bM.M=#:..

0E2E:02E0 CD 3D 0B CD 3D 13 CD A3-93 A3 26 62 CD 3D 23 8B M=.M=.M#.#&bM=#.

0E2E:02F0 CA BA 04 00 CD 3D 0A CD-3D 13 CD A3 93 A3 28 62 J:..M=.M=.M#.#(b

0E2E:0300 CD 3D 23 CD 3D 0C CD 3D-13 CD A3 93 A3 2A 62 M=#M=.M=.M#.#*b3

0E2E:0310 DB CD 3E 21 8B CB BB 01-00 BA 38 65 CD 3E 1F BB [M>! .K;.. :8eM>. ;

0E2E: 0320 01 00 CD 3D 2B 23 DB 74-03 E9 50 00 A1 2C 62 40 ..M=+#[t.iP. ! ,b@

0E2E: 0330 A3 2C 62 BB 01 00 CD E1-CD E2 06 05 07 07 07 07 #,b; .. MaMb......

0E2E: 0340 04 8B 1E 2C 62 8B D3 D1-E3 D1 E3 8B CB 81 13 7C ... ,b.SQcQc.K.C!

0E2E:0350 3F CD E3 8B D9 81 C1 6C-2C 8B C3 8B D9 CD E3 05 ?Mc.Y.A1, .C.YMc.

0E2E:0360 10 36 93 CD E3 BB 2E 62-CD E3 BB 32 62 CD E3 D1 .6.Mc; .bMc;2bMcQ

0E2E:0370 E2 81 C2 56 47 89 DA CD-E3 E9 A3 FF CD 3E 2333 b.BVG.ZMci#.M>#3 0E2E:0380 DB CD 3E 21 SB CB BB 01-00 BA 46 65 CD 3E 1F BB [M> !. K;.. :FeM>. ;

0E2E: 0390 01 00 CD 3E 21 BB 02 00-BA 54 65 33 C9 CD 3E 1F ..M> ! ;..:Te3IM>.

0E2E:03A0 BB 01 00 CD 3E 21 BB 03-00 BA 64 65 33 C9 CD 3E ;..M> ;..:de3IM> 0E2E:03B0 1F C7 06 36 62 0C 00 C7-06 33 62 00 00 B8 01 00 .G.6b..G.8b..8..

0E2E: 03C0 E9 19 00 8B 1E 2C 62 8B-D3 D1 E3 D1 E3 81 C3 F2 i .... , b . SQcQc . Cr

0E2E:03D0 23 SB CA SB D3 BB 34 64-CD 8C 41 91 A3 2C 62 83 (. J.S;4dM. A.#,b.

0C2E:03E0 3E 2C 62 12 7E DD B8 01-00 E9 15 00 8B 3E 2C 62 > ,b. ~]B. .i. .. . >,b

0E2E:03F0 PB DF D1 E7 D1 E7 81 C7-58 3C BE 74 65 CD A6 43 ._QgQg.6x<>teM&C

0E2E: 0400 93 A3 2C 62 81 3E 2C 62-C8 00 7E E0 BB 0F 00 CD . #.b. ,bH.~ ;..M0E2E:0410 3E 33 BB 01 00 CD 3E 33-BB 0C 00 CD 3E 35 CD 3E > 3; ..M> 3; .. M 5M> 0E2E:0420 31 E8 2B 03 E8 CB 01 CD-3D 06 BA 3A 62 CD 8C 92 1h+.hk.M=. : :bM.. 0E2E:0430 BB 34 64 CD 3D 74 ED BB-78 65 BA 3A 62 CD 3D 09 ;4dM. tm;xe: :bM=. 0E2E:0440 CD 82 BF 3E 62 CD A8 8B-F7 CD D2 74 D7 BF 94 63 M. ?>bM(.wMRtW?.c 0E2E:0450 BE 3E 62 CD AA 8B D6 CD-A2 93 DA B9 02 00 99 >>bM*. VM".. Z9... 0E2E:0460 F7 F9 93 CD 82 97 CD A8-BF 32 65 BE 3E 62 CD CA wy.M..M(?.e>>bMJ 0E2E:0470 74 03 E9 16 00 E8 72 00-CD 3D 06 BA 3A 62 CD 8C t.i..hr.M=.::bM. 0E2E:0480 92 BB 34 64 CD 8D 74 E0-E9 AC FF BE 3E 62 CD AO .;4dM.ti,.>>bM 0E2E:0490 CD 89 03 99 04 99 04 9F-04 EB 4E 00 E9 85 FF 33 M.. ......hN.i..3 0E2E:04A0 DB CD 3E 50 CD 3E 50 CD-3E 50 CD 3E 52 CD 3E 23 [M>PM>PM>PM>RM># 0E2E:04B0 B8 42 62 50 BS 44 62 50-9A 00 00 00 00 1E 07 FC 8BbP8DbP.......! 0E2E: 04C0 833E 44 62 FF 75 03 E9-10 00 CD E6 BB 86 65 CD .>Db.u.i ..Mf;.eM 0E2E:04D0 95 8B 1E 44 62 CD 98 E9-07 00 CD E6 BB 98 65 CD ...DbM.i..Mf;.eM 0E2E:04E0 99 BB 01 00 CD 3E 3C CD-3E 03 BB 01 00 CD 3D 2B .;..M><M>.;..M=+ 0E2E:04F0 23 DB 75 03 E9 09 00 CD-3E 2C CD 3E 23 E9 9F FF #[u.i..M>,M>#i.. 0E2E:0500 BB 01 00 CD E1 CD E2 09-05 04 05 05 05 05 04 05 ;..MaMb......... 0E2E:0510 05 BB 46 62 CD E3 BB 4A-62 CD E3 BB 4C 62 CD E3 .:FbMc;JbMc:LbMc 0E2E:0520 BB 50 62 CD E3 BB 54 62-CD E3 BB 58 62 CD E3 BB ;PbMc;TbMc;XbMc; 0E2E:0530 5C 62 CD E3 BB 5E 62 CD-E3 BB 62 62 CD E3 E9 AE \bMc;^bMc;bbMci. 0E2E:0540 00 B8 42 62 50 B8 66 62-50 B8 56 0C 50 B8 44 62 .8BbP8fbP8V.P8Db 0E2E:0550 50 CC 00 00 00 00 1E 07-FC 83 3E 66 62 00 74 03 PL......!.>fb.t. 0E2E:0560 E9 01 00 C3 8B 1E 56 0C-CD 82 BF 46 62 CD A8 Al i..C..V.M.?FbM(! 0E2E:0570 58 0C A3 4A 62 83 3E 4A-62 0C BB 00 00 7E 01 4B X.#Jb.>Jb.;..~.K 0E2E:0580 83 3E 4A 62 01 BA 00 00-7D 01 4A 0B D3 23 D2 75 . >Jb.:..>.J.S#Ru 0E2E:0590 03 E9 06 00 C7 06 4A 62-01 00 CD E6 BB 46 62 CD . i..G.Jb..Mf ;FbM 0E2E:05A0 8E 8B 1E 4A 62 CD 98 8B-1E 5A 0C CD 82 BF 4C 62 ...JbM...Z.M.?Lb 0E2E:05B0 CD A8 8B 1E 5C 0C CD 82-BF 50 62 CD A8 8B 1E 5E M(..\.M.?PbM(..^ 0E2E:05C0 0C CD 82 BF 54 62 CD A8-8B 1E 60 0C CD 82 BF 58 .M.?TbM(..'.M.?X 0E2E:05D0 62 CD A8 A1 62 OC A3 5C-62 SE 1E 64 OC CD 82 BF bM ( !b.#\b..d.M.? 0E2E: 05E0 5E 62 CD A8 8B 1E 66 0C-CD 82 BF 62 62 CD A8 E8 ^bM(..f .M.?bbM(h 0E2E:05F0 77 02 E8 BA 09 BE 68 62-CD A0 93 A3 6C 62 B8 01 w.h:.>hbM .#1b8. 0E2E: 0600 00 E9 38 00 8B 36 2C 62-D1 E6 D1 E6 81 C6 58 3C .i8..6,bQfQf.FX< 0E2E:0610 BF 74 65 CD CA 75 03 E9-1E 00 8B 36 2C 62 D1 E6 ?teMJu.i...6,bQf 0E2E:0620 D1 E6 81 C6 583C BF A4-65 CD AA BF 6E 62 CD CC Qf.FX<?$eM*?nbML 0E2E:0630 72 03 E9 03 00 E8 11 00-A1 2C 62 40 A3 2C 62 A1 r.i..h..!,b@#,b! 0E2E:0640 6C 62 3B 06 2C 62 7D BC-C3 BB 1E 72 62 D1 E3 D1 1b;.,b}<C..rbQcQ 0E2E:0650 E3 81 C3 7C 3F CD 3D 11-93 BB A8 65 CD 80 BA 74 c.C!?M=..; (eM.:t 0E2E:0660 62 CD 8C E8 81 00 E8 E6-00 8B 3E 72 62 D1 E7 D1 bM.h..hf..>rbQgQ 0E2E: 0670 E7 31 C7 58 3C BE 74 65-CD A6 8B 3E 72 62 D1 E7 g.BX<>teM&.>rbQg 0E2E:0680 D1 E7 81 C7 34 39 BE E0-65 CD A6 BB E4 65 BA 78 Qg.B49> eM&;de:x 0E2E: 0690 62 CD 8C A1 7C 62 A3 7E-62 B8 01 00 E9 23 00 8B bM.! b#~bB..i#.. 0E2E:06A0 36 80 62 D1 E6 D1 E6 81-C6 08 2A BF 46 62 CD CA 6.bQfQf .FX*?FbMJ 0E2E:06B0 74 03 E9 09 00 BB EC 65-BA 78 62 CD 8C C3 A1 80 t.i..;le:xbM.C!. 0E2E.06C0 62 40 A3 80 62 A1 7E 62-3B 06 80 62 7D D1 A1 7C b@#.b!~b; ..b}Q!! 0E2E:06D0 62 40 A3 7C 62 8B 3E 7C-62 D1 E7 D1 E7 81 C7 D8 b@#!b.>bQgQg.GX 0E2E:06E0 2A BE 46 62 CD A6 C3 A1 -82 62 40 A3 82 62 A1 82 *>FbM&C! .b@#.b'. 0E2E:06F0 62 A3 8462 83 3E 82 62-12 7E 03 E9 09 00 C7 06 b#.b.>.b.~. i ..G. 0E2E: 0700 84 62 01 0 0 E9 1D 00 83-3E 84 62 12 7F 03 E9 OC .b..i ...>.b...i.0E2E: 0710 00 A1 84 62 05 EE FF A3-84 62 E9 EA FF A1 84 62 ..!.b.n.#.bi i.!.b 0E2E: 0720 40 A3 84 62 A1 38 62 40-A3 38 62 83 3E 38 62 12 @#.b !8b@#8b.>8b. 0E2E:0736 75 03 E9 06 00 87 06 38-62 01 00 8B 1E 38 62 D1 ..i..6.8b....8bQ 0E2E:0740 53 D1 E3 81 03 F2 28 8B-D3 BB 74 62 CD 8C C3 BF cQc.Cr(.S;tbM.CP 0E2E:0750 94 63 BE 86 82 CD CA 74-03 E9 OA 00 BB FE BE F4 .c >.bMJt.i....~ t0E2E:0760 65 CD A6 E9 03 00 BF 86- 62 BE 94 63 CD A6 CD 3E eM&i ..?.b>.cM&M0E2E:0770 31 CD E6 BB 15 62 CD 99-CD E6 BB 22 62 CD 99 CD 1Mf : . bM.Mf; bM.M 0E2E:0780 E6 BB 50 00 BA F8 65 CD-3D 0F CD 95 A1 84 62 8B f ;P. :xeM=.M. ! .b.

0E2E:0790 D8 05 11 00 A3 8A 62 93-E9 2D 00 A1 8C 62 A3 8E X...f#.b.i-.!.b#.

0E2E:07A0 62 83 3E 8E 62 12 7F 03-E9 09 00 A1 SE 62 05 EE b.>.b...i..!..b.n

0E2E-07B0 FF A3 3E 62 CD E6 SB 1E-8E 62 Di 13 D1 E3 81 C3 -#.bMf...bQcQc.C

0E2E:07C0 F2 28 CD 99 Al 1C 62 40-A3 SC 62 A1 8A 62 3B 06 r (M. ! .b@#.b ! .b;.

0E2E: 07D0 8C 62 7D C7 BB 18 00 CD-3E 42 BB 0C 00 CD 3E 44 .b}G;..M>B;..M>D

0E2E:07E0 8B D3 BB 0E 00 CD 3E 33-BB 01 00 CD 3E 33 8B CB .S;..M>3;..M>3.K

0E2E:07F0 8B DA CD 3E 35 CD E6 BB-FE 65 CD 95 BB 0F 00 CD .ZM>5Mf;~eM.;..M

0E2E:0800 3E 33 8B D9 CD 3E 33 8B-DA CD 3E 35 BB 1A 62 BA >3.YM>3.ZM>5; .b:

0E2E:0810 01 00 8B CB CD 3D OB 93-BB 6E 64 CD 8D 39 56 FE .. .KM=..;ndM..V~

0E2E:0820 BA 00 00 75 01 4A 8B D9-8B C2 8B 56 FE CD 3D 0B :..u.J.Y.B.V~M=.

0E2E:0830 93 8B D3 BB 74 64 CD 8D-B9 00 00 75 01 49 OB CA ..S;tdM.9..u.I.J

0E2E:0840 23 C9 74 03 E9 21 00 33-DB CD 3E 50 BB 01 00 CD #lt.i!.3[M>P;..M

0E2E:0850 3E 50 BE 86 62 SB D6 CD-A0 CD 3E 50 8B FA BE 94 >P>.b.VM M>P.z>.

0E2E:0860 63 CD C2 CD A2 CD 3E 52-C3 ES 85 01 BB E4 65 B8 cMBM"M>RCh..;de8

0E2E:0870 90 62 CD 8D 74 03 E9 01-00 C3 83 3E 4A 62 01 74 .bM.t.i..C.>Jb.t

0E2E: 0880 03 E9 13 00 BE 62 62 CD-A0 8B 3E 72 62 D1 E7 D1 .i..>bbM .>rbQgQ

0E2E: 0890 E7 D1 E7 89 9D CA 2F 83-3E 4A 62 06 74 03 E9 13 gQg..J/.>Jb.t.i.

0E2E:08A0 00 BE 62 62 CD A0 8B 3E-72 62 D1 E7 D1 E7 D1 E7 .>bbM . >rbQgQgQg

0E2E:08B0 S9 9D CC 2F 83 3E 4A 62-0C 74 03 E9 13 00 BE 62 ..L/.>Jb.t.i..>b

0E2E:08C0 62 CD A0 8B 3E 72 62 D1-E7 D1 E7 D1 E7 89 9D CE bM . >rbQgQgQg..N

0E2E:08D0 2F 8B 36 4A 62 D1 E6 D1-E6 81 C6 94 2F BF 4C 62 /.6JbQfQf.F./?Lb

0E2E:08E0 CD BA BF 50 62 CD BC BF-5E 62 CD BC BF DC 63 CD M:?PbM<?^bM<?\cM

0E2E: 08F0 BC BF 36 66 CD B4 BF 94-62 CD A8 B8 24 00 F7 2E <?6fM4?.bM (8$.w.

0E2E:0900 72 62 97 81 C7 72 0C 8B-F7 BF 4C 62 CD AA 8B FE rb..Gr..w?LbM*.~

0E2E:0910 CD A8 B8 24 00 F7 2E 72-62 97 81 C7 76 0C 8B F7 M(8$. w.rb..Gv..w

0E2E: 0920 BF 50 62 CD AA 8B FE CD-A8 B8 24 00 F7 2E 72 62 ?PbM*.~M(8$.w.rb

0E2E:0930 97 81 C7 7A OC 8B F7 BF-54 62 CD AA 8B FE CD A8 ..Gz..w?TbM*.~M(

0E2E:0940 B8 24 00 F7 2E 72 62 97-31 C7 7E 0C 8B F7 BF 58 8$.w.rb..G~..w?X

0E2E:0950 62 CD AA 8B FE CD AS E8-F2 05 B8 24 00 F7 2E 72 bM*.~M(hr.8$.w.r

0E2E: 0960 62 97 81 C7 86 0C 8B F7-BF 5E 62 CD AA 8B FE CD b..G...w?^bM*.~M

0E2E:0970 A8 BB 02 00 CD 3E 07 BB-46 62 CD 92 8B 1E 4A 62 (;..M>.;FbM...Jb

0E2E:0980 CD 94 BB 4C 62 CD 92 BB-50 62 CD 92 BB 54 62 CD M.;LbM.;PbM.;TbM

0E2E:0990 92 BB 58 62 CD 92 8B 3E-72 62 D1 E7 8B 9D E4 5E .:XbM..>rbQg..d^

0E2E: 09A0 CD 94 BB 5E 62 CD 92 BB-62 62 CD 92 CD 3D 23 BA M. ;^bM. ;bbM.M=#:

0E2E:09B0 06 00 CD 3D 0B 8B D3 CD-3D 23 8B CA BA 02 00 CD ..M=..SM=#.J:..M

0E2E:09C0 3D 0C 91 CD 80 CD 95 CD-3D 24 CD 99 B8 24 00 F7 =..M.M.M=$M.8$.w

0E2E:09D0 2E 72 62 97 81 C7 8A 0C-3B F7 BF 94 62 CD AA 8B .rb..G...w?.bM*.

0E2E:09E0 FE CD A8 83 3E 4A 62 0C-74 03 E9 03 00 ES E4 00 ~M(.>Jb.t.i..hd.

0E2E:09F0 C3 ES 0B 05 BB EC 65 B8-90 62 CD 8D 74 03 E9 12 Ch.. ;le8.bM.t.i.

0E2E:0A00 00 8B 36 72 62 D1 E6 D1-E6 81 C6 00 2E BF 93 62 ..6rbQfQf.F..?.b

0E2E:0A10 CD A6 C3 B8 01 00 E9 7F-00 8B 36 9C 62 8B DE D1 M&C8..i...6.b.^Q

0E2E:0A20 E6 D1 E6 81 C6 7C 3F BF-46 62 CD CA 74 03 E9 63 fQf.F!??FbMJt.ic

0E2E:0A30 00 8B D7 BF 94 63 BE 68-62 CD AA 8B FE CD A8 8B ..W?.c>hbM*.~M<.

0E2E: 0A40 23 8B F7 CD A0 8B FB D1-E7 D1 E7 31 C7 00 2E 8B K.wM . [QgQg.G...

0E2E:0A50 C3 8B D9 CD 82 CD A8 A3-72 62 8B 3E 72 62 D1 E7 C.YM.M(#rb. >rbQg

0E2E:0A60 D1 E7 81 C7 34 39 8B F2-CD A6 E8 42 05 8B 3E 72 Qg.G49.rM&hB..>r

0E2E:0A70 62 D1 E7 D1 E7 8B DF 81 -C7 58 3C BE 6E 62 CD A6 bQgQg. .GX<>nbM&

0E2E:0A80 81 C3 00 2E 8B F3 BF 98-62 CD A6 BB EC 65 BA 90 .C...s?.bM&;le:.

0E2E:0A90 62 CD 80 E3 A1 9C 62 19-A3 9C 62 81 3E 9C 62 C3 bM.C .b@#.b.>.bH

0E2E:0AA0 00 7E 03 E9 73 FF E8 E2-FB BB EC 65 B8 78 62 CD ...is.hb(;le8xbM

0E2E:0AB0 8D 74 03 E9 01 00 03 99-46 62 CD 3D 11 B8 3A 66 .t.i..C:FbM=.8:f

0E2E:0AC0 CD 80 83 8B 46 66 80-BA 74 62 CD 8C E8 17 FC M..;FfM.:tbH.h.!

0E2E : 0AD0 E8 78 FC C3 88 36 72 82-D1 86 D1 E6 81 C6 00 2E h!!C.6rbQfQf.F.. 0E2E.0AE0 BF 93 62 CD A6 BE 98 62-CD AO D1 E3 D1 E3 81 C3 ?.bM&>.bM QcOc.C

0E2E:0AF0 10 36 BA 03 00 CD 3D 0B-8B 36 72 62 D1 E6 D1 E6 .6:..M=..6rbQfQf

0E2E:0B00 31 C6 34 39 BF 73 66 CD-AA 8B D3 BB 1A 00 CD 3D .F49?xfM*.S;..M=

0E2E:0B10 11 8B CA BA 04 00 CD 3D-0C 91 CD 80 BA B6 28 CD ..J:..M=..M.:6(M

0E2E: 0B20 8C B8 24 00 F7 2E 72 62-96 81 C6 72 OC BF 78 66 .8$.w.rb..Fr.?xf

0E2E:0B30 CD AA BB IA 00 CD 3D 11-BA 04 00 CD 3D OC BA BE M*; .. M=. : .. M=. : >

0E2E:0B40 28 CD 8C BB 7C 66 BA C2-28 CD 8C B8 24 00 F7 2E <M. ; !f :B(M.8$.w.

0E2E:0B50 72 62 96 81 C6 76 OC 8B-1E 36 62 CD 82 CD B6 BF rb..Fv...6bM.M6?

0E2E:0B60 82 66 CD BC BB 1A 00 CD-3D 03 BF 86 66 CD AC BB .fM<;..M=.?.fM,;

0E2E: 0B70 1A 00 CD 3D 11 BA 03 00-CD 3D 0C BA C6 28 CD 8C ..M=.:..M=.:F(M.

0E2E:0B80 8B DA BA 02 00 8B CB CD-3D 0B 93 BB 8A 66 CD 80 .Z:...KM=..;.fM.

0E2E:0B90 8B C3 8B D9 BA 01 00 CD-3D 0C CD 80 8B D1 CD 8C .C.Y:..M=.M..QM.

0E2E:0BA0 B8 24 00 F7 2E 72 62 96-81 C6 7A OC 8B 1E 36 62 8$.w.rb..Fs...6b

0E2E:0BB0 CD 82 CD B6 BB 1A 00 CD-3D 03 BF 86 66 CD AC BB M.M6; ..M=.?.fM,;

0E2E:0BC0 1A 00 CD 3D 11 BA 03 00-CD 3D OC BA CA 28 CD 8C ..M=.:..M=.:J(M.

0E2E:0BD0 8B DA BA 02 00 8B CB CD-3D 0B B8 7C 66 CD 80 93 .Z:...KM=.8!fM..

0E2E: 0BE0 BB 8A 66 CD 80 8B C3 8B-D9 BA 01 00 CD 3D 0C CD ;.fM..C.Y:..M=.M

0E2E:0BF0 80 8B D1 CD 8C B8 24 00-F7 2E 72 62 96 81 C6 7E ..QM.8$.w.rb..F~

0E2E:0C00 0C 8B 1E 36 62 CD 82 CD-B6 BB 1A 00 CD 3D 03 BF ...6bM.M6;..M=.?

0E2E:0C10 86 66 CD AC BB 1A 00 CD-3D 11 BA 03 00 CD 3D OC .fM,;..M=.:..M=.

0E2E:0C20 BA CE 28 CD 8C 8B DA BA-02 00 8B CB CD 3D 0B B8 :N(M..Z:...KM=.8

0E2E:0C30 7C 66 CD 80 93 BB 8A 66-CD 80 8B C3 8B D9 BA 01 !fM..;.fM..C.Y:.

0E2E:0C40 00 CD 3D 0C CD 80 8B D1-CD 8C 8B 3E 72 62 D1 E7 .M=.M..QM..>rbQg

0E2E:0C50 8B 9D E4 5E CD 82 BF 90-66 CD B4 8B D3 BB 1A 00 ..d^M.?.fM4.S;..

0E2E: 0C60 CD 3D 03 CD A2 93 A3 9E-62 8B DA B8 3C 00 F7 2E M=.M".#.b.Z8<.w.

0E2E:0C70 9E 62 2B D8 CD 82 BF A0-62 CD A8 8B 1E 9E 62 83 .b+XM.? bM(....b.

0E2E: 0C80 C3 64 CD 3D 10 BA 02 00-CD 3D 0C B8 7C 66 CD 80 CdM=.:..M=.8!fM.

0E2E:0C90 BA A4 62 CD 8C BF 36 66-BE A0 62 CD AA BB 1A 00 : $bM.?6f > bM*; ..

0E2E:0CA0 CD 3D 11 BA 02 00 CD 3D-0C 93 BB 7C 66 CD 80 BA M=.:..M=..; !fM.:

0E2E:0CB0 A8 62 CD 8C BB 94 66 B8-A4 62 CD 80 93 BB A8 62 (bM.;.f8$bM..; (b

0E2E:0CC0 CD 80 BA D2 28 CD 8C B8-24 00 F7 2E 72 62 96 81 M.:R(M.8$.w.rb..

0E2E:0CD0 C6 86 0C 8B 1E 36 62 CD-82 CD B6 BB 1A 00 CD 3D F....6bM.M6;..M=

0E2E:0CE0 03 BF 36 66 CD AC BB 1A-00 CD 3D 11 BA 02 00 CD .?6fM,;..M=.:..M

0E2E:0CF0 3D 0C BA D6 28 CD 8C B8-24 00 F7 2E 72 62 05 8A =.:V(M.8$.w.rb..

0E2E: 0D00 0C 93 CD 3D 03 BF 9A 66-CD AC BB 1A 00 CD 3D 11 ..M=.?.fM,;..M=.

0E2E.0D10 BA 05 00 CD 3D 0E BA 03-00 CD 3D 0B B8 7C 66 CD :..M=.:..M=.8!fM

0E2E: 0D20 80 93 BB 9E 66 CD 80 BA-DA 28 CD SC B8 24 00 F7 ..;.fM.:Z(M.8$.w

0E2E:0D30 2E 72 62 96 81 C6 8A 0C-8B D6 BE 98 62 CD A0 8B .rb..F...V>.bM .

0E2E: 0D40 FB D1 E7 8B 9D 56 47 CD-B2 89 F2 CD B6 BB 1A 00 {Qg..VGM..rM6; ..

0E2E: 0D50 CD 3D 03 BB 1A 00 CD 3D-11 B8 9E 66 CD 80 BA 03 M=.;..M=.8.fM.:.

0E2E.0D60 00 CD 3D 0C CD 80 BA DE-28 CD 8C BB DE 23 CD 3D .M=.M.:^(M.:^(M=

0E2E: 0D70 138B 3E 72 62 D1 E7 8B-9D E4 5E CD 9D 89 CD 82 ..>rbQg..d^M..M.

0E2E: 0D80 CD 9F CD B9 89 BF A4 66-CD BD BB 16 00 CD 3D 04 M.M9.?$fM=; ..M=.

0E2E:0D90 BB 16 00 CD 3D 12 B8 9E-66 CD 80 BA 04 00 CD 3D ;..M=.8.fM.:..M=

0E2E:0DA0 OC nez AC 66 CD 80 BA E2-28 CD 8C BB 34 64 BA 74 .8,fM.:b(M.;4d:t 0E2E:0DB0 62 CD 8C B8 01 00 E9 22-00 8B 1E 2C 62 8B D3 D1 bM.8..i"... ,b.SQ

0E2E:0DC0 E3 D1 E3 81 C3 B2 28 B8-74 62 CD 80 93 8B CD BB cQc.C2(8tbM...K;

0E2E:0DD0 9E 66 CD 80 8B C2 8B D1-CD 8C 40 A3 2C 62 83 3E . fM..B.QM.@#,b.>

0E2E: 0DE0 2C 62 0D 7E D4 BB 74 62-BA 4F 00 8B CB CD 3D 0B ,b.~T;tb:0..KM=.0Ε2E: 0DE0 8B D1 CD 8C BE 98 62 CD-A0 D1 E3 D1 E3 81 C3 6C .QM. .bM QcQc.C1 0E3E:0ED0 28 8A 07 00 8B CB CD 3D-OB CD 3D 13 CD A3 93 A3 ,:...kM=.M= .M#.# 0E2E:0E10 AC 82 88 D9 8B CA BA 04-00 8B C3 CD 3D OA CD 3D ,b.Y.J:...CM=.M=0E2E : 0E20 13 CD A3 93 A2 AE 62 3B-D1 CD 3D 0C CD 3D 13 BF .M#.#.b.QM=.M=.? 0E2E: 0E30 A4 66 CD AD CD A3 93 A3-B0 62 A1 2A 62 A3 48 0C 4fM-M#.#0b! b#H. 0E2E 0E40 A1 26 62 A3 4A 0C A1 23-62 A3 4C 0C E8 49 F2 A1 !&b#J.! (b#L.hlr!

0E2E: 0E50 B0 62 A3 43 0C A1 AC 62-A3 4A 0C A1 AE 62 A3 4C 0b#H. ! ,b#J. ! .b#L

0E2E: 0E60 0C CD 9C 39 E8 31 F2 CD-C8 39 BF B2 62 CD A8 8B .M..h1rMH.?2bM (.

0E2E: 0E70 F7 BF BC 66 CD B2 BB 1A-00 CD 3D 03 8B FE CD A8 w?<fM2; .. M=..~M(

0E2E: 0E80 E8 64 FB BB 03 00 CD 3E-07 8B 1E 72 62 8B D3 D1 hdx;..M>...rb.SQ

0E2E: 0E90 E3 D1 E3 81 C3 34 39 CD-92 BB 74 62 CD 95 8B FA cQc.C49M. ;tbM..z

0E2E: 0EA0 D1 E7 D1 E7 D1 E7 8B 9D-CA 2F CD 94 8B 9D CC 2F QgQgQg..J/M... L/

0E2E: 0EB0 CD 94 8B 9D CE 2F CD 94-CD 3D 23 BA 06 00 CD 3D M...N/M.M=#:..M=

0E2E: 0EC0 0B 8B D3 CD 3D 23 8B CA-BA 02 00 CD 3D 0C 91 CD ..SM=#.J:. .M=..M

0E2E: 0ED0 80 CD 95 BB B2 62 CD 92-CD 3D 24 CD 99 E8 6F F8 .M.;2bM.M=$M.bhx

0E2E: 0EE0 8B 3E 72 62 D1 E7 D1 E7-8B DF 81 C7 58 3C BE 74 .>rbQgQg._.GX<>t

0E2E: 0EF0 65 CD A6 81 C3 34 39 8B-FB BE E0 65 CD A6 C3 BE eM&.C49.{>.eM&C>

0E2E: 0F00 68 62 CD A0 93 A3 B6 62-B8 01 00 E9 29 00 8B 36 hbM .#6b8..i)..6

0E2E: 0F10 2C 62 SB DE D1 E6 D1 E6-81 C6 34 39 BF 46 62 CD ,b.^QfQf.F49?FbM

0E2E: 0F20 CA 74 03 E9 0D 00 93 A3-72 62 BB EC 65 BA 90 62 Jt.i...#rb;le:.b

0E2E: 0F30 CD 8C C3 A1 2C 62 40 A3-2C 62 A1 B6 62 3B 06 2C M.C!,b@#,b!6b;.,

0E2E: 0F40 62 7D CB BB E4 65 BA 90-62 CD 8C C3 BB E4 65 B8 b}K;de:.bM.C;de8

0E2E: 0F50 90 62 CD 8D 74 03 E9 01-00 C3 83 3E 4A 62 01 74 .bM.t.i..C.>Jb.t

0E2E: 0F60 03 E9 0F 00 8B 3E 72 62-D1 E7 8B 1E 5C 62 89 9D .i... >rbQg..\b..

0E2E: 0F70 E4 5E C3 E8 39 00 8B 3E-72 62 8B DF D1 E7 D1 E7 d^Ch9..>rb._QgQg

0E2E: 0F80 81 C7 58 3C BE 6E 62 CD-C2 8B D7 BF BS 62 8B CE .GX<>nbMB.W?8b.N

0E2E: 0F90 CD A8 8B C7 8B FA 8B F1-CD A6 8B FB D1 E7 8B 9D M(.G.z.qM&. {Qg..

0E2E: 0FA0 E4 5E CD 82 97 CD AC CD-A2 97 89 9D E4 5E C3 CD d^M..M,M"...d^CM

0E2E: 0FB0 3D 24 BA 01 00 B9 02 00-CD 3D 0A CD 3D 13 BF C0 =$:..9..M=.M=.?@

0E2E: 0FC0 66 CD BD CD 3D 24 BA 04-00 CD 3D 0A CD 9D 89 CD fM=M=$:..M=.M..M

0E2E: 0FD0 3D 13 BF C8 66 CD BD CD-B1 89 CD 3D 24 BA 07 00 =.?HfM=M1.M=$:..

0E2E: 00E0 CD 3D 0A CD 9D 8A CD 3D-13 CD B1 3A CD A5 BF 6E M=.M..M=.M1.M%?n

0E2E: 0FF0 62 CD A8 C3 B8 42 62 50-B8 44 62 50 CC 00 00 00 bM(C8BbP8DbPL...

0E2E: 1000 00 1E 07 FC 33 3E 44 62-FF 75 03 E9 10 00 CD E6 ...!.>Db.u.i..Mf

0E2E: 1010 BB D0 66 CD 95 8B 1E 44-62 CD 98 E9 0D 00 CD E6 ;PfM...DbM.i..Mf

0E2E: 1020 BB E2 66 CD 95 SB 1E 42-62 CD 98 C3 B8 42 62 50 ;bfM...BbM.C8BbP

0E2E: 1030 B8 BC 62 50 B8 44 62 50-CC 00 00 00 00 1E 07 FC 8<bP8DbPL......!

0E2E: 1040 83 3E 44 62 FF 75 03 E9-10 00 CD E6 BB F0 66 CD .>Db.u.i..Mf;pfM

0E2E: 1050 95 8B 1E 44 62 CD 98 E9-10 00 CD E6 BB FC 66 CD ...DbM.i..M-f;i-fM

0E2E: 1060 95 8B 1E BC 62 CD 3D 14-CD 99 C3 C7 06 BC 62 E0 ...<bM=.M.CG.<b

0E2E: 1070 00 B8 42 62 50 BS BC 62-50 B8 44 62 50 CC 00 00 .8BbP8<bP8DbPL..

0E2E: 1030 00 00 1E 07 FC S3 3E 44-62 FF 75 03 E9 10 00 CD ....!.>Db.u.i..M

0E2E: 1090 E6 BB F0 66 CD 95 8B 1E-44 62 CD 93 E9 10 00 CD f;pfM...DbM.i..M

0E2E: 10A0 E6 BB FC 66 CD 95 8B 1E-BC 62 CD 3D 14 CD 99 C3 f;!fM...<bM=.M.C

0E2E: 10B0 B8 42 62 50 B8 BE 62 50-B8 44 62 50 CC 00 00 00 8BbP8>bP8DbPL...

0E2E: 10C0 00 1E 07 FC 83 3E 44 62-FF 75 03 E9 10 00 CD E6 ...!.>Db.u.i..Mf

0E2E: 10D0 BB F0 66 CD 95 8B 1E 44-62 CD 93 E9 03 00 E9 01 ;pfM...DbM.i..i.

0E2E: 10E0 00 C3 BB 14 67 CD E7 8B-1E BE 62 CD 82 BF 2A 67 .C;.gMg..>bM.?*g

0E2E: 10F0 CD BC 8B D3 BB 1A 00 CD-92 81 E2 FF 00 8B DA CD M<.8;..M..b...ZM

0E2E: 1100 98 CD E6 BB 2E 67 CD 95-8B 1E C0 62 CD 3D 14 CD .Mf;.gM...@bM=.M

0E2E: 1110 99 CD E6 BB 3E 67 CD 95-8B 1E C2 62 CD 3D 14 CD .Mf;>gM...BbM=.M

0E2E: 1120 99 C3 C7 06 D4 62 00 00-C7 06 D8 62 00 00 E9 D6 .CG.Tb..G.Xb..ιV0E2E: 1130 00 CD E6 BE 34 64 CD 99-CD E6 BB 4E 67 CD 95 8B .Mf;4dM.Mf;NgM..

0E2E: 1140 10 2C 62 CD 98 BB 58 67-CD E0 02 CD E2 01 04 BB .,bM.;XgM .Mb..; 0E2E:1150 EA 62 CD E3 83 3E EA 62-00 75 03 E9 A9 00 83 3E jbMc.>jb.u.i)..>0E2E:1160 EA 6201 7503 E9 03 00-E9 DA FF C7 06 EC 62 FF jb.u.i..1Z.G.1b.0E2E:1170 FF 83 3E EC 62 FF 74 03-E9 77 00 BB 6C 67 CD E0 ..>1b.t.iw.;!gM0E2E: 1180 02 CD E2 01 04 BB 80 62-CD E3 83 3E 80 62 6E 74 .Mb..;.bMc.>.bnt 0E2E: 1190 03 E9 98 00 07 06 EC 62-00 00 81 3E 80 62 2C 01 . i..G.1b.....b,. 0C2E: 11A0 74 03 E9 06 00 C7 06 EC-62 01 00 81 3E 80 62 B0 t.i..G.1b...>.b0 0E2E: 11B0 01 74 03 E9 06 00 C7 06 -EC 62 02 00 81 3E 80 62 .t.i..G.1b...>.b 0E2E: 11C0 60 09 74 03 E9 06 00 C7 -06 EC 62 03 00 51 3E 80 .t.i..G.1b...>. 0E2E: 11D0 62 C0 12 74 03 E9 06 00 -C7 06 EC 62 04 00 81 3E b@.t.i..G.1b...> 0E2E: 11E0 80 62 80 25 74 03 E9 06 -00 C7 06 EC 62 05 00 E9 .b.%t.i..G.1b..i 0E2E:11F0 7F FF C7 06 EE 62 00 00-BB 98 67 CD E0 02 CD E2 ..G.nb..;.gM .Mb 0E2E: 1200 01 04 BB F0 62 CD E3 C7 -06 D6 62 01 00 B8 42 62 ..;pbMcG.Vb..8Bb 0E2E: 1210 50 B8 D4 62 50 B8 44 62-50 CC 00 00 00 00 1E 07 P8TbP8DbPL...... 0E2E: 1220 FC 83 3E 44 62 FF 75 03-E9 10 00 CD E6 BB F0 66 !.>Db.u.i..Mf;pf 0E2E: 1230 CD 95 8B 1E 44 62 CD 98-E9 07 00 CD E6 BB AC 67 M...DbM.i..Mf;,g 0E2E: 1240 CD 99 C3 CD 3E 02 F3 A5-8E DA 8B 2E 16 0C 8B C5 M.CM>.s%..Z.....E 0E2E: 1250 2B C2 3D 00 10 72 03 B8-00 10 5E 5F 8B D5 2B DO +B=..r.8..^_.U+P 0E2E: 1260 B1 04 D3 E0 8E D2 8B E0-57 56 2D 01 02 50 16 07 1.S .R. WV-..P.. 0E2E: 1270 8B F0 8B F8 40 91 FD F3-A4 FC 16 1F 58 B9 D0 67 .p.x@.}s$!..X9Pg 0E2E: 1280 FF 2E 14 0C B0 04 BF B0-05 A2 20 00 5F 5E 89 26 ....0.?0." ._^.& 0E2E: 1290 1E 00 56 57 CB 5F 5E 5B-56 57 FF 36 00 00 FF 37 ..VWK_^[VW.6...7 0E2E: 12A0 CB 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 K............... 0E2E: 12B0 18 00 54 63 30 30 30 33-30 33 30 36 30 38 31 31 ..Tc000303060811 0E2E: 12C0 31 33 31 36 31 39 32 31-32 34 32 36 00 00 00 7F 131619212426.... 0E2E: 12D0 18 00 74 63 30 30 30 33-30 33 30 36 30 38 31 31 ..tc000303060811 0E2E: 12E0 31 33 31 36 31 39 32 31-32 33 32 36 00 00 60 83 131619212326.. . 0E2E: 12F0 00 00 10 84 00 00 00 81-3F 00 9C 63 46 52 49 44 .........?..cFRID 0E2E: 1300 41 59 20 20 20 53 41 54-55 52 44 41 59 20 53 55 AY SATURDAY SU 0E2E: 1310 4E 44 41 59 20 20 20 4D-4F 4E 44 41 59 20 20 20 NDAY MONDAY 0E2E: 1320 54 55 45 53 44 41 59 20-20 57 45 44 4E 45 53 44 TUESDAY WEDNESD 0E2E: 1330 41 59 54 48 55 52 53 44-41 59 20 37 00 00 40 82 AYTHURSDAY 7..@. 0E2E: 1340 15 00 E4 63 46 52 49 53 41 54 53 55 4E 4D 4F 4E ..dcFRISATSUNMON 0E2E: 1350 54 55 45 57 45 44 54 48-55 06 37 89 41 7F FA 7E TUEWEDTHU.7.A.z~ 0E2E: 1360 0A 80 FE D4 78 7F 00 00-00 80 F2 D2 0D 80 0E 2D ..~Tx .. . ..rR. ..- 0E2E: 1370 72 80 7F 6A 7C 80 48 E1-3A 7F 81 95 03 80 71 3D r..j!.Ha:.....q= 0E2E: 1380 0A 7F 81 95 03 7F 09 00-2A 64 6D 64 75 69 6F 2E ........*dmduio. 0E2E: 1390 62 69 6E 00 00 00 38 64-1C 00 3C 64 63 61 6C 6C bin...8d..<dcall 0E2E: 13A0 20 6D 69 6E 69 74 28 6D-6F 70 65 6E 2C 2E 2E 2E minit (mopsn , ... 0E2E: 13B0 2C 6D 63 6C 6F 73 65 29- 12 00 5C 64 3C 54 3E 45 ,mclose)..\d<T>E 0E2E: 13C0 53 54 20 6F 72 20 3C 4E- 3E 4F 52 4D 41 4C 01 00 ST or <N>ORMAL.. OE2E: 13D0 72 64 54 EE 01 00 78 64- 74 00 1A 00 7E 64 50 72 rdln..xdt...~dPr 0E2E: 13E0 65 70 61 72 69 6E 67 20- 73 63 72 65 65 6E 73 20 eparing screens 0E2E: 13F0 61 6E 64 20 64 61 74 61- 4B 00 9C 64 20 4D 45 4D and dataK..d MEM 0E2E: 1400 42 45 52 20 20 20 41 43- 54 55 41 4C 20 20 20 41 BER ACTUAL A 0E2E: 1410 43 54 55 41 4C 20 20 20- 52 45 50 20 20 20 20 52 CTUAL REP R 0E2E: 1420 45 50 20 20 20 20 43 4B -54 20 20 20 41 56 47 20 EP CKT AVG 0E2E: 1430 20 20 43 41 4C 20 20 20 -20 20 43 41 4C 2F 20 20 CAL CAL/ 0E2E: 1440 20 20 13 41 4C 2F 20 00 -4B 00 EC 64 20 20 20 49 CAL/ . K.ld I 0E2E: 1450 44 20 20 20 20 20 20 52 -45 53 20 20 20 20 20 20 D RES

0E2E: 1460 52 45 50 53 20 20 20 34 -49 4D 45 2B 20 20 34 49 REPS TIME+ TI 0E2E: 1470 4D 45 2D 20 20 54 49 4D -45 20 20 20 52 4F 4D 20 ME- TIME ROM 0E2E: 1480 20 42 55 52 4E 45 44 20 -20 20 20 4C 42 20 20 20 BURNED LB 0E2E: 1490 20 4C 42 2F 53 45 43 00 -0A 00 3C 65 49 44 44 41 LB/SEC...<elDDA 0E2E: 14A0 54 41 2E 44 4154 0A 00 -4A 65 50 44 49 53 49 4D TA.DAT.. JePDISIM 0E2E: 14B0 2E 44 4154 0C 0058 65-41 52 43 48 49 56 45 31 .DAT..XeARCHIVE1 0E2E: 14C0 2E 44 41 54 0C 006865-4152 43 48 49 56 45 32 .DAT..heARCHIVE20 E2E: 14D0 2E 44 41 54 80 4F 43 91-06 00 7 C 65 72 53 72 52 .DAT . OC... !esSrR0E2E : 14E0 65 45 0000 00 82 0E 00-8A 65 43 6C 6F 736520 eC ....... eClose0E2E: 14E0 65 72 72 6F 72 20 3A 20-08 00 9C 65 436C 6F 73 error : ...eClos 0E2E: 1500 65 20 4F 4B 00 00 61 8B-33 00 AC 65 20 49 53 20 e OK.. a.3.,e IS

0E2E: 1510 4F 56 45 52 54 49 4D 45-20 4F 4E 20 54 48 45 20 OVERTIME ON THE

0E2E: 1520 45 53 45 52 43 49 53 45-20 4C 49 4E 45 2E 20 41 EXERCISE LINE. A

0E2E: 1530 55 54 4F 4D 41 54 49 43-20 4C 4F 47 4F 55 54 00 UTOMATIC LOGOUT.

0E2E: 1540 00 00 43 00 04 00 E3 65-4E 4F 50 45 03 00 F0 65 ..C...heNOPE..pe

0E2E: 1550 59 55 50 00 00 00 00 00-01 00 FC 65 3D 00 33 00 YUP.......!e=.3.

0E2E: 1560 02 66 53 49 4D 55 4C 41-54 45 3A 20 3C 52 3E 75 .fSIMULATE: <R>u

0E2E: 1570 6E 20 66 72 65 65 20 20-3C 53 3E 69 6E 67 6C 65 n free <S>ingle

0E2E: 1580 20 73 74 65 70 20 20 20-20 20 20 20 20 20 20 3C step <

0E2E: 1590 45 3E 78 69 74 00 00 00-48 87 08 00 3E 66 50 4C E>xit...H...>fPL

0E2E: 15A0 55 47 20 49 44 23 2E 00-4A 66 2C 20 2D 2D 20 44 UG ID#..Jf, -- D

0E2E: 15B0 4F 4E 27 54 20 4B 4E 4F-57 20 48 4F 57 20 59 4F ON'T KNOW HOW YO

0E2E: 15C0 55 20 44 49 44 20 49 54-2C 20 42 55 54 20 49 4E U DID IT, BUT IN

0E2E: 15D0 56 41 4C 49 44 20 49 44-00 40 1C 8E 01 00 80 66 VALID ID.@.....f

0E2E: 15E0 20 00 00 00 20 84 00 00-7A SA 01 00 8E 66 2E 7C ... ....z....f.!

0E2E:15F0 00 00 70 86 01 00 98 66-3A 00 00 50 43 91 02 00 ..p....f:..PC...

0E2E.1600 A2 66 20 20 00 00 00 00-00 00 48 87 04 00 B0 66 "f ..... .H...Of

0E2E: 1610 20 20 20 20 00 00 00 00-00 80 6D 8B 00 80 36 89 ......m...6.

0E2E: 1620 00 00 00 00 00 00 61 8C-00 00 00 00 00 00 70 86 ......a.......P.

0E2E: 1630 0D 00 D4 66 4F 70 65 6E-20 45 72 72 6F 72 20 3A ..TfOpen Error :

0E2E: 1640 20 00 09 00 E6 66 48 61-6E 64 6C 65 20 3A 20 00 ...ffHandle : .

0E2E: 1650 08 00 F4 66 45 72 72 6F-72 20 3A 20 14 00 00 67 .. tfError : ...g

0E2E: 1660 44 65 76 69 63 65 20 44-65 73 63 72 69 70 74 6F Device Descripto

0E2E: 1670 72 20 3A 20 11 00 18 67-52 65 76 69 73 69 6F 6E r : ...gRevision

0E2E: 16S0 20 3A 20 23 23 5F 2E 23-23 CF 00 00 00 79 0B 00 : ##_.##0...y..

0E2E: 1690 32 67 4C 69 6E 65 20 31-20 3A 20 20 20 00 0B 00 2gLine 1 : ...

0E2E: 16A0 42 67 4C 69 6E 65 20 32-20 3A 20 20 20 00 05 00 BgLine 2 : ...

0E2E: 16B0 52 67 4C 69 6E 65 20 00-10 00 5C 67 41 63 74 69 RgLine ... \gActi

0E2E: 16C0 76 65 20 20 20 20 28 30-2D 31 29 20 28 00 70 67 ve (0-1) (.pg

0E2E: 16D0 42 61 75 64 20 72 61 74-65 20 28 31 31 30 2C 33 Baud rate (110,3

0E2E: 16E0 30 30 2C 31 32 30 30 2C-32 34 30 30 2C 34 38 30 00,1200,2400,480

0E2E: 16F0 30 2C 39 36 30 30 29 20-10 00 9C 67 4C 6F 6F 70 0,9600) ...gLoop

0E2E: 1700 62 61 63 6B 20 20 28 30-2D 31 29 20 04 00 B0 67 back (0-1) ..Og

0E2E: 1710 4F 6B 61 79 00 00 00 00-00 00 00 00 00 00 00 00 Okay............

0E2E: 1720 FF FF 01 00 00 00 00 00-00 00 00 00 00 00 00 00 ................

0E2E: 1730 06 BA C1 0F 8E DA 26 8B-3E 02 00 8E C2 57 B9 0C .:A..Z&.>...BW9.

0E2E: 1740 00 BE F1 01 BF 1A 0C 0E-1F FC F3 A4 B1 19 33 C0 .>q.?....!s$1.3@

0E2E: 1750 F3 AA 8E DA 5F B4 0F BA-1A 0C CD 21 0A C0 74 3D s*.Z_4.:..M!.@t=

0E2E: 1760 C6 06 1A 0C 01 B4 0F CD-21 0A C0 74 30 1E 0E 1F F....4.M!.@t0...

0E2E: 1770 BA BC 01 B4 09 CD 21 1F-C6 06 22 00 02 BA 22 00 :<.4.M!.F."..:".

0E2E: 1780 B4 0A CD 21 80 3E 23 00-01 75 E2 A0 24 00 24 DF 4. M! .>#.. ub $.$_

0E2E:1790 2C 40 74 D9 3C 1A 77 D5-A2 1A 0C EB B8 33 C0 A3 ,@tY<.wU"..k83@#

0E2E: 17A0 3B 0C A3 3D 0C 40 A3 28-0C BA 00 0C B4 1A CD 21 ;.#=.@#(.:..4.M!

0E2E: 17B0 B9 1A 00 BA 1A 0C B4 27-CD 21 A1 08 0C 05 1F 00 9..:..4'M!!.....

0E2E: 17C0 23 E0 FF A3 3B 0C C7 06-28 0C 10 00 8B 16 04 0C % .#;.G. (... ....

0E2E:17D0 4A B1 05 D3 E2 2B D0 A1-02 0C 05 0F 00 B1 04 D3 J1.Sb+P!.....1.S

0E2E: 17E0 E8 03 D0 39 16 04 0C 2B-FA 83 EF 14 8C D6 8B DC h .P....+z.o..V.\

0E2E: 17F0 33 C3 11 B1 04 D3 E3 03-F3 3B FE 73 03 E9 B3 00 .C.1.8k. s;~s.13.

0E2E: 1800 8B EF 1E 8E DF 33 D2 B4-1A CD 21 1F 8B 0E 04 0C .o.._3R4.M!.....0E2E: 1810 BA 1A 0C B4 27 CD 21 29-0E 04 0C 75 26 A1 18 0C :..4 M!)...u&!..

0E2C: 1820 A33B 0C C7 06 28 0C 01-00 BA 00 0C B4 1A CD 21 #;.G. (...:..4.M

0E2E: 1830 83 3E 08 0C 00 74 22 B4-27 BA 1A 0C B9 04 00 CD .>...t"4 :..9..M 0E2E: 1840 21 0A C0 75 69 8B 3E 00-0C A1 02 0C 03 C5 8E C0 !.@ui. .! ...E.@

0E2E: 1850 26 01 2D FF 0E 08 0C 35 -DE 5B 01 2E 16 0C 1E 07 &. -....u [...... 0E2E: 1860 8E DD B9 00 06 33 F6 8B-FE FC F3 A5 06 1F 1E B8 .19..3v.~|s%...8 0E2E: 1870 59 0F 8E D8 B9 A1 0F 2B-C8 D1 E1 D1 E1 D1 E1 B8 Y..X9! . +HQaGaQa8 0E2E: 1380 F6 15 8E C0 33 F6 37 FF -F3 A5 1F 8C D1 8C D8 2B v..@3v3.s%..Q. X+ 0E2E: 1890 C8 81 F9 00 10 76 03 B9-00 10 D1 E1 D1 E1 D1 E1 H.y..v.9..QaQaQa 0E2E: 18A0 BA 59 0F 8E C2 33 F6 8B-FE EA 06 00 52 0F BA 90 :Y..B3v.~j..R.:. 0E2E: 18B0 01 EB 03 BA A6 01 0E 1F-B4 09 CD 21 33 C0 50 CB .k.:&...4.M!3@PK 0E2E: 18C0 0D 0A 45 72 72 6F 72 20-69 6E 20 45 38 45 20 66 ..Error in EXE f 0E2E: 18D0 69 6C 65 0D 0A 24 0D 0A-50 72 6F 67 72 61 6D 20 ile..$..Program 0E2E: 18E0 74 6F 6F 20 6C 61 72 67-65 0D 0A 24 0D 0A 43 61 too large..$..Ca 0E2E: 18F0 6E 6E 6F 74 20 66 69 6E-64 20 41 3A 42 41 53 52 nnot find A:BASR 0E2E: 1900 55 4E 2E 45 58 45 0D 0A-45 6E 74 65 72 20 6E 65 UN. EXE..Enter ne 0E2E: 1910 77 20 64 72 69 76 65 20-6C 65 74 74 65 72 3A 20 w drive letter: 0E2E: 1920 24 00 42 41 53 52 55 4E-20 20 45 58 45 00 00 00 $.BASRUN EXE... 0E2E: 1930 00 0000 00 00 00 00 00-00 00 00 00 00 00 00 00 ................ 0E2E: 1940 00 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 ................ 0E2E: 1950 00 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 ................ 0E2E: 1960 00 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 ................ 0E2E: 1970 00 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 ................ 0E2E: 1980 C1 04 29 8B D3 8B D9 CD-92 8B DA 81 C2 B4 29 8B A.).S.YM..Z.B4). 0E2E: 1990 CB 8B DA CD 92 81 C1 64-2A 8B D9 CD 92 CD EA BE K.ZM..Ad*.YM.Mj> 0E2E: 19A0 E6 33 CD A0 Dl 13 D1 E3-8B D3 81 C3 84 2E CD 3D f3M QcQc.S. C..M= 0E2E: 19B0 11 B8 26 44 CD 80 8B CA-BA 02 00 CD 3D 0C 93 BB .8&DM.. J : .. M=.. ; 0E2E: 19C0 5A 3B CD 80 81 C1 34 2F-8B F1 BF 56 3B CD AA 8B Z;M..A4/.q?V;M*. 0E2E: 19D0 CB BB 1A 00 CD 3D 11 CD-3D 0C 91 CD 80 CD 95 BB K;..M=.M=..M.M.; 0E2E: 19E0 0A 33 CD EB BE E6 33 CD-AO D1 E3 D1 E3 8B D3 81 .3Mk>f3M QcQc.S. 0E2E: 19F0 C3 C4 2B CD 92 8B DA 81-C2 74 2C 8B CB 8B DA CD CD+M.. Z.Bt,. K.ZM 0E2E: 1A00 92 8B D9 81 C1 24 2D 8B-D3 8B D9 CD 92 81 C2 D4 ..Y.A$-.S.YM..BT 0E2E: 1A10 2D 8B DA CD 96 BB EA 33-BA 01 00 CD 3D 0B 93 BB -.ZM.;j3:..M=..; 0E2E: 1A20 18 44 CD 8D 74 03 E9 0B-00 BF E6 33 BE 2C 44 CD .DM.t.i..?f3>,DM 0E2E: 1A30 A6 E9 08 00 BF E6 33 BE-30 44 CD A6 BB C0 43 CD &i..?f3>0DM&;@CM 0E2E: 1A40 EB BE E6 33 CD A0 D1 E3-D1 E3 8B D3 81 C3 F4 26 k>f3M QcQc.S. Ct& 0E2E: 1A50 93 BB 60 3B CD 80 81 C2-3E 00 8B CB 8B DA 91 CD .; ';M..B>".K.Z.M 0E2E: 1A60 80 CD 95 BE E6 33 CD A0-8B FB D1 E7 83 BD 30 32 .M.>f3M .{Qg.=02 0E2E: 1A70 00 74 03 E9 07 00 CD EA-BB 60 3B CD 99 BE E6 33 .t.i..Mj:';M.>f3 0E2E: 1A80 CD A0 8B FB D1 E7 33 BD-30 32 00 75 03 E9 37 00 M . {Qg.=02.u.i7. 0E2E: 1A90 8B D3 BB 06 33 CD EB D1-E2 D1 E2 8B DA 81 C2 54 .S;.3MkQbQb.Z.BT 0E2E: 1AA0 28 8B CB 8B DA CD 92 8B-D9 81 C1 04 29 8B D3 8B (.K.ZM..Y.A.).S. 0E2E: 1AB0 D9 CD 928B DA 81 C2 B4-29 8B CB 8B DA CD 92 81 YM..Z.B4) .K.ZM.. 0E2E: 1AC0 C1 64 2A 8B D9 CD 92 CD-EA BE E633 CD A0 D1 E3 Ad*.YM.Mj>f3M Qc 0E2E: 1AD0 D1 E3 8B D3 81 C384 2E-CD 3D 11 B8 26 44 CD 80 Qc.S.C..M=.8&DM. 0E2E: 1AE0 8B CA BA 02 00 CD 3D 0C-93 BB 5A 3B CD 80 81 C1 . J: ..M=.. ;Z;M..A 0E2E: 1AF0 34 2F 8B F1 BF 56 3B CD-AA BB CB BB 1A 00 CD 3D 4/:q?V;M*.K;..M= 0E2E: 1B00 11 CD 3D 0C 91 CD 80 CD-95 BB 0A 33 CD EB BE E6 .M=..M.M.; .3Mk>f 0E2E: 1B10 33 CD A0 D1 E3 D1 E38B-D3 81 C3 C4 2B CD 92 8B 3M QcQc.S.CD+M.. 0E2E: 1B20 DA 81 C2 74 2C 8B CB 8B-DA CD 92 8B D9 8a C1 24 Z.Bt,.K.ZM..Y.A= 0E2E: 1B30 2D 8B D3 8B D9 CD 92 81-C2 D4 2D 8B DA CD 96 BF -.S.YM..BT-.ZM.? 0E2E: 1B40 E6 33 BE 34 44 CD A6 8B-C0 43 CD EB BE E6 33 CD f3>4DM&;@CMk>f3M 0E2E: 1B50 A0 D1 E3 D1 E3 8B D3 81-C3 F4 26 93 BB 60 3B CD QcQc.S.Ct&.: :M

0E2E: 1B60 B0 81 C2 3E 22 8B CB 8B-DA 91 CD 80 CD 95 BE E6 ..B>".K.Z.M.M.>f

0E2E: 1B70 33 CD A0 8B FB D1 E7 83-BD 30 32 00 74 03 E9 07 3M . {Qg.=02. t.1.

0E2E: 1B80 00 CD EA BB 60 3B CD 99-BE E6 33 CD A0 8B FB D1 .Mj; ;M.>f3M . {0

0E2E: 1B90 E781 CD 303200 75 03-E9 37 00 8B D3 BB 06 33 g. =02.u.17.. S;.3

0E2E: 1BA0 CD EB D1 E2 D1 E2 8B DA-81 C2 54 2B 8B CB 8B DA MkQbQb.Z.Bt(.K.Z

0E2E: 1BB0 CD 92 8B D9 81 C1 04 29-8B D3 8B D9 CD 92 8B DA M.. Y .A. ).S.YM..Z 0E2E: 1BC0 81 C2 B4 29 8B CB 8B DA-CD 92 81 C1 64 2A 8B D9 .B4).K.ZM..Ad*.Y

0E2E: 1BD0 CD 92 CD EA BE E6 33 CD-A0 D1 E3 D1 E3 8B D3 81 M.Mj>f3M QcQc.S.

0E2C: 1BE0 C3 84 2E CD 3D 11 B8 26-44 CD 80 8B CA BA 02 00 C..M=.8&DM..J:..

0E2E: 1BF0 CD 3D 0C 93 BB 5A 3B CD-80 81 C1 34 2F 8B F1 BF M=..;Z;M..A4/.q?

0E2E: 1C00 56 3B CD AA 8B CB BB 1A-00 CD 3D 11 CD 3D 0C 91 V;M*.K;..M=.M=..

0E2E: 1C10 CD 80 CD 95 BB 0A 33 CD-EB BE E6 33 CD A0 D1 E3 M.M.;.3Mk>f3M Qc

0E2E: 1C20 D1 E3 8B D3 81 C3 C4 2B-CD 92 8B DA 81 C2 74 2C Qc.S.CD+M..Z.Bt,

0E2E: 1C30 8B CB 8B DA CD 92 8B D9-81 C1 24 2D 8B D3 BB D9 .K.ZM..Y.A$-.S.Y

0E2E: 1C40 CD 92 81 C2 D4 2D 8B DA-CD 96 C3 BB 38 44 BA 54 M..BT-.ZM.C;8D:T

0E2E: 1C50 33 CD 8C BB 54 44 BA 58-33 CD 8C BB D8 44 BA 5C 3M.;TD:X3M.;XD:\

0E2E: 1C60 33 CD 8C BB 5A 45 BA 60-33 CD 8C BB DC 45 BA EE 3M.;ΣE: 3M.;\E:n

0E2E: 1C70 33 CD 8C 33 DB CD 3E 21-8B CB BB 02 00 BA 5E 46 3M.3[M>:.K;..:∧F

0E2E: 1C80 CD 3E 1F 8B 02 00 CD 3D-2B 23 DB 75 03 E9 0E 00 M>.;.. M=+#[u.i..

0E2E: 1C90 CD 3E 23 CD E6 BB 6E 46-CD 99 E8 81 11 C3 BB 02 M>#Mf;nFM.h..C;. 0E2E: 1CA0 00 CD E1 CD E2 10 05 04-05 05 05 05 05 05 05 07 .MaMb........... 0E2E: 1CB0 07 07 07 07 07 07 BB F2-33 CD E3 BB F6 33 CD E3 ......;r3Mc;v3Mc 0E2E: 1CC0 BB F8 33 CD E3 BB FC 33-CD E3 BB 00 34 CD E3 BB ;x3Mc; |3Mc;.4Mc; 0E2E: 1CD0 04 34 CD E3 BB 08 34 CD-E3 BB 0C 34 CD E3 BB 10 .4Mc;.4Mc;.4Mc;. 0E2E: 1CE0 34 CD E3 BB 66 33 CD E3-BB 14 34 CD E3 BB 18 34 4Mc;f3Mc;.4Mc;.4 0E2E: 1CF0 CD E3 BB 1C 34 CD E3 BB-20 34 CD E3 BB EA 33 CD Mc;.4Mc; 4Mc;j3M 0E2E: 1D00 E3 BB 22 33 CD E3 BB A0-46 CD 3D 2F BF A4 46 CD c;"3Mc; FM=/?$FM 0E2E: 1D10 BC BF A8 46 CD AC BB 1A-00 CD 3D 03 8B 1E F6 33 <?(FM,;..M=...v3 0E2E: 1D20 CD 9C 89 CD 82 CD C0 89-BF 08 34 CD A8 BB AC 46 M..M.M@.?.4M <; ,F 0E2E: 1D30 BA 24 34 CD 8C C7 06 A0-33 00 00 BF 28 34 BE F2 :$4M.G. 3..?(4>r 0E2E: 1D40 33 CD A6 BF 2C 34 BE A0-46 CD A6 CD EA BB 0C 00 3M&?,4> FM&Mj;.. 0E2E: 1D50 CD 3D 05 CD 99 E8 55 0F-BB 18 34 BA 02 00 8B CB M=.M.hU.;.4:...K 0E2E: 1D60 CD 3D 0B CD 3D 13 CD A3-93 A3 30 34 8B D9 8B CA M=.M=.M#.#04.Y.J 0E2E: 1D70 BA 04 00 8B C3 CD 3D 0A-CD 3D 13 CD A3 93 A3 32 :...CM=.M=.M#.#2 0E2E: 1D80 34 8B D1 CD 3D 0C CD 3D-13 BF B4 46 CD AD CD A5 4. QM=. M=. ?4FM-M% 0E2E: 1D90 BF 34 34 CD A8 CD 3D 23-BA 02 00 CD 3D 0B CD 3D ?44M(M=#:..M=.M= 0E2E: 1DA0 13 CD A3 93 A3 38 34 CD-3D 23 8B CA BA 04 00 CD .M#.#84M=#. J:..M 0E2E: 1DB0 3D 0A CD 3D 13 CD A3 93-A3 3A 34 CD 3D 23 CD 3D =.M=.M#.#:4M=#M= 0E2E: 1DC0 0C CD 3D 13 CD A5 BF 3C-34 CD A8 BE 3C 34 CD A0 .M=.M%?<4M(><4M 0E2E: 1DD0 93 A3 EC 32 A1 38 34 A3-EE 32 A1 3A 34 A3 F0 32 .#12!84#n2! : 4#p2 0E2E:1DE0 E8 C4 E2 BE 34 34 CD 9C-89 CD A0 93 A3 EC 32 A1 hDb>44M..M .#12! 0E2E: 1DF0 30 34 A3 EE 32 A1 32 34-A3 F0 32 E8 A9 E2 CD C8 04#n2!24#p2h)bMH 0E2E: 1E00 89

TABLE IV

Reports Program - REPORTS.EXE

0E2E:0100 C9 86 8B 1E EE 32 D1 E3-4B 8B D3 BB 30 35 B9 02 I...n2QcK.S;059. 0E2E:0110 00 CD 3D 0A CD 9D 37 CD-3D 13 CD B1 37 8B 1E FO .M=.M..M=.M1...p 0E2E:0120 32 CD 9D 88 CD 81 CD B1-88 CD A5 C3 E9 2F 00 BF 2M..M.M1.M%Ci/.? 0E2E:0130 4C 35 BE F2 32 CD B2 BB-1A 00 CD 3D 03 8B DE CD L5>r2M2; ..M=..^M

0E2E:0140 BC 8B F3 CD C6 BF 50 35-CD BC BF 54 35 CD AC CD <.sMF?P5M<?T5M,M

0E2E:0150 A2 8B D3 BB 58 35 B9 09-00 CD 3D 0A 93 C3 E9 2F ".S:X59..M=..Ci/

0E2E:0160 00 BF 4C 35 BE F6 32 CD-B2 BB 1A 00 CD 3D 03 8B .?L5>v2M2; ..M=..

0E2E:0170 DE CD BC 8B F3 CD C6 BF-9C 35 CD BC BF 54 35 CD ^M<.sMF?.5M<?T5M

0E2E:0180 AC CD A2 8B D3 BB A0 35-B9 03 00 CD 3D 0A 93 C3 ,M".S; 59..M=..C

0E2E:0190 BB BA 35 BA FA 32 CD 8C-BB EE 35 BA FE 32 CD 8C ;:5:z2M.;n5:~2M.

0E2E:01A0 BB 26 36 BA 02 33 CD 8C-BB 5A 36 BA 06 33 CD 8C ;&6: 3M.;Z6:.3M.

0E2E:01B0 BB 88 36 BA 0A 33 CD 8C-BB 05 00 CD 3E 42 CD 3E ;.6;.3M.;..M>BM>

0E2E:01C0 44 CD E6 BB C0 36 CD 99-BB 07 00 CD 3E 42 BB 0A DMf;@6M.;..M>B;.

0E2E:01D0 00 CD 3E 44 CD E6 BB EE-36 CD 99 E8 40 2C CD EA .M>DMf;n6M.h@,Mj

0E2E:01E0 BB 0F 00 CD 3D 05 CD 99-BB 08 37 BA 34 00 CD 3E ;..M=.M.;.7:..M>

0E2E:01F0 2B E8 1E 29 C7 06 8A 32-0E 00 C7 06 8C 32 14 00 +h.)G..2..G..2..

0E2E:0200 C7 06 8E 32 12 00 C7 06-90 32 23 00 C7 06 92 32 G..2..G..2#.G..2

0E2E:0210 25 00 C7 06 94 32 13 00-C7 06 96 32 15 00 C7 06 %. G ..2.. G..2..G.

0E2E: 0220 98 32 0E 00 C7 06 9A 32-13 00 C7 06 9C 32 13 00 .2..G..2..G..2..

0E2E:0230 C7 06 9E 30 0A 00 C7 06-A0 32 09 00 BB 12 37 BA G..2..G. 2..;.7:

0E2E: 0240 AA 32 CD 8C BB 20 37 BA-AE 32 CD 8C BB 32 37 BA *2M.; 7:.2M.;27:

0E2E:0250 B2 32 CD 8C BB 3E 37 BA-B6 32 CD 8C BB 4C 37 BA 22M.;>7:62M. ;L7:

0E2E:0260 BA 32 CD 8C BB 5A 37 BA-BE 32 CD 8C BB 6A 37 BA :2M.;Z7:>2M.;j7:

0E2E:0270 C2 32 CD 8C BB 7C 37 BA-C6 32 CD 8C BB 90 37 BA B2M.; |7:F2M.;.7:

0E2E:0280 CA 32 CD 8C BB 9C 37 BA-CE 32 CD 8C BB A6 37 BA J2M.;.7:N2M.;3.7:

0E2E:0290 D2 32 CD 8C BB B0 37 BA-D6 32 CD 8C CD 3E 23 CD R2M.;07:V2M.M>#M

0E2E:02A0 3E 31 BB 05 00 CD 3E 42-BB 01 00 CD 3E 44 BB 4F >1; ..M>B; ..M>D;0

0E2E:02B0 00 BA BC 37 CD 3D OF BA-0E CD SC CD E6 8B DA .:<7M=.:.3M.Mf.Z

0E2E:02C0 CD 99 CD E6 BB 14 00 CD-3F 37 BB C2 37 CD 95 BB M.Mf;..M?7;B7M.;

0E2E:02D0 C6 37 CD 99 CD E6 BB 14-00 CD 3F 37 BB C2 37 CD F7M.Mf; ..M?7:B7M

0E2E: 02E0 95 BB E4 37 CD 99 CD E6-BB 14 00 CD 3F 37 BB C2 .;d7M.Mf;..M?7;B

0E2E: 02F0 37 CD 95 BB 04 33 CD 99-CD E6 BB 14 00 CD 3F 37 7M.;.8M.Mf;..M?7

0E2E:0300 BB C2 37 CD 95 BB 22 38-CD 99 CD E6 BB 14 00 CD ;B7M.;"8M.Mf;..M

0E2E:0310 3F 37 BB C2 37 CD 95 BB-48 38 CD 99 CD E6 BB 14 ?7;B7M.;H8M.Mf;.

0E2E: 0320 00 CD 3F 37 BB C2 37 CD-95 BB 72 38 CD 99 CD E6 .M?7;B7M. ;r8M.Mf

0E2E: 0330 BB C2 37 CD 99 CD E6 BB-14 00 CD 3F 37 BB C2 37 ;B7M.Mf ; ..M?7;B7

0E2E:0340 CD 95 BB 92 38 CD 99 CD-E6 BB 0E 33 CD 99 CD E6 M.;.8M.Mf;.3M.Mf

0E2E:0350 BB C2 77 CD 99 CD E6 8B-D3 BB 19 00 CD 3F 37 8B ;B7M.Mf.8;..M?7.

0E2E: 0360 DA CD 95 BB A2 38 CD 95-E8 B3 2A BB B8 38 BA 12 ZM.;"8M.h3*;88:.

0E2E: 0370 33 CD 3D 09 CD 82 BF 16-33 CD A8 CD E6 8B DF CD 3M=.M.?.3M(Mf._M

0E2E: 0380 96 8B F3 CD D2 75 03 E9-12 FF CD 3E 31 BE 16 33 ..ΞMRu.i..M>1>.3

0E2E: 0390 CD A0 CD 88 07 A9 03 48-08 31 0D 08 12 4B 1C A7 M M.. ) .H.1...K.

0E2E: 03A0 27 A6 03 E9 F6 FE CD 3E-01 C7 06 1A 33 00 00 CD &.iv~M>.G..3..M 0E2E: 03B0 3E 31 BB G7 00 CD 3E 42-BB 14 00 CD 3E 44 CD E6 >1;..M>B;..M>DMf

0E2E: 03C0 BB C4 38 CD 99 33 DB CD-3E 21 8B CB BB 01 00 BA ;DBM.3[M>!.K;..: 0E2E: 03D0 D0 38 CD 3E 1F 33 DB CD-3E 21 8B CB BB 02 00 BA P8M>.3[M>!.K;..: 0E2E: 03E0 E038 CD 3E 1F BB 02 00-CD 3D 2B 23 CB 75 03 E9 8M>.;..M=+#[u.i 0E2E: 03F0 09 00 BB 02 00 CD 3E 22-E9 52 00 A1 1C 33 40 A3 ..;..M>";R. !.3@# 0E2E: 0400 1C 33 BB 02 00 CD E1 CD-E2 06 05 07 07 07 07 07 .3;..MuMb....... 0E2E: 0410 8B 1E 1C 33 D1 E3 D 1 E3-8B D3 81 C3 42 0C CD E3 ...30c0c.S.CB.Mc 0E2E: 0420 8B DA 81 C2 66 0F 8B CB-8B DA CD E3 BB D9 81 C1 .Z.Bf..K.ZMc.Y.A

0E2E: 0430 8A 12 8B D3 8B D9 CD E3-81 C2 AE 15 8B DA CD E3 ...S.YMc.B...ZMc

0E2E:0440 BB 1E 33 CD E3 BB 22 33-CD E3 E9 98 FF BB 01 00 ;.3Mc;"3Mci..;..

0E2E: 0450 CD 3D 2B 23 DB 75 03 E9-06 00 CD 3E 23 E9 B6 00 M=+#[u.i..M>#i6.

0E2E: 0460 BB 01 00 CD E1 CD E2 08-05 07 05 05 05 07 05 07 : .. MaMb.........

0E2E: 0470 BB 26 33 CD E3 BB 2A 33-CD E3 BB 2E 33 CD E3 BB ;&3Mc;*3Mc;.3Mc;

0E2E:0480 32 33 CD E3 BB 36 33 CD-E3 BB 3A 33 CD E3 BB 3E 23Mc;63Mc;:3Mc;>

0E2E: 0490 33 CD E3 BB 42 33 CD E3-A1 1C 33 A3 46 33 B8 01 3Mc;B3Mc!.3#F38.

0E2E: 04A0 00 E9 63 00 8B 36 48 33-D1 E6 D1 E6 8B DE 81 C6 .ic..6H3QfQf.Λ.F

0E2E: 04B0 42 0C BF 26 33 CD CA 74-03 E9 47 00 A1 1A 33 40 B.?&3MJt.iG.!.3@

0E2E: 04C0 A3 1A 33 8B 16 1A 33 D1-E2 D1 E2 8B CA 81 C2 D2 #.3...3QbQb.J.BR

0E2E: 04D0 18 8B C3 81 C3 8A 12 93-89 5E FE BB EE 38 CD 80 ..C.C....∧~;n8M.

0E2E: 04E0 8B 46 FE 05 AE 15 93 CD-80 CD 8C 8B D9 81 C1 1A .F~....M.M..Y.A.

0E2E: 04F0 1F 8B D1 8B C3 BB 2A 33-CD 8C 05 66 0F 92 BB 42 ..Q.C;*3M..f..:B

0E2E: 0500 33 CD 8C A1 48 33 40 A3-48 33 A1 46 33 3B 06 48 3M.!H3@#H3!F3;.H

0E2E: 0510 33 7D 91 E9 37 FF BB 07-00 CD 3E 42 BB 14 00 CD 3}.i7.;..M>3;..M

0E2E: 0520 3E 44 CD E6 BB F4 33 CD-99 A1 1A 33 48 A3 4A 33 >DMf;t8M.!.3H#J3

0E2E: 0530 B8 01 00 E9 9D 00 8B 1E-1C 33 D1 E3 D1 E3 8B D3 8..i.....3QcQc.S

0E2E: 0540 81 C3 D6 18 8B CA BA 4C-33 CD 8C 81 C1 1E 1F 8B .CV..J:L3M..A...

0E2E: 0550 D9 BA 50 33 CD 8C A1 1C-33 E9 41 00 8B 1E 48 33 Y:P3M.!.3iA...H3

0E2E: 0560 D1 E3 D1 E3 81 C3 D2 18-93 BB 4C 33 CD 8D 77 03 QcQc.CR..:L3M.w.

0E2E: 0570 E9 3A 00 8B 1E 48 33 D1-E3 D1 E3 8B D3 81 C3 D6 i:...H3QcQc.S.CV

0E2E: 0580 18 8B CA 81 C2 D2 18 87-D3 CD 8C 8B D9 81 C1 1E > .J.BR..SM. . Y .A.

0E2E: 0590 1F 81 C3 1A 1F 8B D1 CD-8C A1 48 33 48 A3 48 33 ..C...QM.!H3H#H3

0E2E: 05A0 83 3E 48 33 01 7D B5 C7-06 48 33 00 00 8B 1E 48 . >H3.}5G. H3.. ..H 0E2E:05B0 33 D1 E3 D1 E3 8B D3 81-C3 D6 18 8B CA 8B D3 BB 3QcQc.S.CV..J.S;

0E2E: 05C0 4C 33 CD 8C 31 C1 1E 1F-8B D1 BB 50 33 CD 8C A1 L3M..A...Q;P3M.!

0E2E: 05D0 1C 33 40 A3 1C 33 A1 4A-33 3B 06 1C 33 7C 03 E9 .3@#.3!J3;..3|.i

0E2E:05E0 54 FF BB 07 00 CD 3E 42-BB 14 00 CD 3E 44 CD E6 T.;..M>B;..M>DMf

0E2E: 05F0 BB 00 39 CD 99 BB 0C 39-BA 54 33 CD 8C E8 AD 26 ;.9M.;.9:T3M.h-&

0E2E:0600 BB 24 39 BA 5833 CD 8C-BB AA 39 BA 5C 33 CD 8C ;$9:X3M.;*9:\3M.

0E2E:0610 BB 32 3A BA 60 33 CD 8C-CD EA BB 58 33 CD 99 CD ;2::'3M.Mj;X3M.M

0E2E:0620 EA BB 5C 33 CD 99 CD EA-BB 60 33 CD 99 CD EA BB j;\3M.Mj;'3M.Mj;

0E2E: 0630 83 00 BA BC 37 CD 3D 0F-CD 99 A1 1A 33 A3 64 33 ..:<7M=.M.!.3#d3

0E2E:0640 B8 01 00 E9 EF 01 BB B4-3A CD EB 8B 1E 1C 33 D1 8..io.;4:Mk...3Q

0E2E:0650 E3 D1 E3 31 C3 D2 18 BA-13 00 CD 3D 0B CD 95 BB cQc.CR.:..M=.M.;

0E2E:0660 D0 3A CD EB 8B 1E 1C 33-D1 E3 D1 E3 81 C3 1A 1F P:Mk...3QcQc.C..

0E2E:0670 BA 0C 00 B9 04 00 CD 3D-0A CD 95 BB E2 3A CD EB :..9..M=.M.;bsMk

0E2E:0680 8B 1E 1C 33 D1 E3 D1 E3-81 C3 1A 1F BA 15 00 B9 ...3QcQc.C.. :..9

0E2E: 0690 04 00 CD 3D 0A CD 95 BB-F0 3A CD EB 8B 1E 1C 33 ..M=.M.;p:Mk...3

0E2E:06A0 D1 E3 D1 E3 81 C3 1A 1F-BA 1C 00 B9 04 00 CD 3D QcQc.C..:..9..M=

0E2E:06B0 0A CD 95 BB F0 3A CD EB-8B 1E 1C 33 D1 E3 D1 E3 .M.;p:Mk...3QcQc

0E2E:06C0 81 C3 1A 1F BA 23 00 B9-04 00 CD 3D 0A CD 95 BB .C..:#.9..M=.M.;

0E2E:06D0 D0 3A CD EB 8B 1E 1C 33-D1 E3 D1 E3 81 C3 1A 1F P:Mk...3QcQc.C..

0E2E:06E0 BA 2A 00 B9 05 00 CD 3D-0A CD 95 BB FC 3A CD EB :*.9..M=.M.;|:Mk

0E2E:06F0 8B 1E 1C 33 D1 E3 D1 E3-81 C3 1A 1F BA 31 00 B9 ...3QcQc.C..:1.9

0E2E:0700 03 00 CD 3D 0A CD 95 BB-FC 3A CD EB 8B 1E 1C 33 ..M=.M.; |:Mk...3

0E2E:0710 D1 E3 D1 E3 81 C3 1A 1F-BA 37 00 B9 03 00 CD 3D QcQc.C..:7.9..M=

0E2E:0720 0A CD 95 BB 10 3B CD EB-8B 1E 1C 33 D1 E3 D1 E3 .M.;.;Mk. ..3QcQc

0E2E:0730 81 C3 1A 1F BA 40 00 B9-03 00 C0 3D 0A CD 95 BB .C..:@.9..M=.M.: 0E2E:0740 20 3B CD EB 8B 1E 1C 33-D1 E3 D1 E3 81 C3 1A 1F ;ME...2QcQc.C.. 0E2E:0750 BA 4B 00 B9 03 00 CD 3D-0A CD 95 8B 1E 1C 33 D1 :k.9..M=.M....300E2E:0760 E3 D1 E3 81 C3 66 0F BA-66 33 CD 8C BB 66 33 BA cQc.Cf.:f3M.;f3: 0E2E:0770 02 00 8B CB CD 3D 0B CD-3D 13 BF 2A 3B CD BD BB ... M-.M=.?*;M . 0E2E: 0780 D9 8B CA BA 04 00 CD 3D-0A CD 9D 89 CD 3D 13 CD Y.J:..M=.M..M=.M 0E2E: 0790 B1 89 CD A5 BF 6A 33 CD-A8 BB 32 3B BA 6E 33 CD 1.M%?j3M(;2;:n3M 0E2E: 07A0 8C BF 38 3B BE 6A 33 CD-CA 77 03 E9 18 00 BB 3C .?8;>j3MJw.i..;<

0E2E: 07B0 3D CD 8C BF 42 3B CD CA-77 03 E9 09 00 BF 46 3B ;M.?B;MJw.i..?F;

0E2E: 07C0 CD AA 8B FE CD A8 BE 6A-33 CD A0 93 B9 64 00 99 M*.~M(>j3M .9d..

0E2E: 07D0 F7 F9 93 CD 3D 10 BA 02-00 CD 3D 0C BA 72 33 CD wy.M=.:..M=.:r3M

0E2E: 07E0 8C 92 BB 4A 3B CD 8D 74-03 E9 06 00 92 BB 50 3B ..;J;M.t.i...;P;

0E2E: 07F0 CD 8C BF 56 3B BE 6A 33-CD AA BB 1A 00 CD 3D 11 M.?V;>j3M*; ..M=.

0E2E: 0800 BA 02 00 CD 3D 0C BA 76-33 CD 8C BB 5A 3B B8 72 : ..M=.:v3M.;Z;8r

0E2E: 0810 33 CD 80 93 BB 76 33 CD-80 93 BB 60 3B CD 80 93 3M..;v3M..; ;M..

0E2E: 0820 BB 6E 33 CD 80 BA 7A 33-CD 8C CD EA BB 7A 33 CD ;n3M.:z3M.Mj;z3M

0E2E: 0830 99 A1 1C 33 40 A3 1C 33-A1 64 33 3B 06 1C 33 7C .!.3@#.3!d3;..3:

0E2E: 0840 03 E9 02 FE CD 3E 23 C3-CD 3E 31 BB 07 00 CD 3E .i.~M>#CM>1;..M>

0E2E: 0850 42 BB 0A 00 CD 3E 44 CD-E6 BB 66 3B CD 99 B8 01 B;..M>DMf;f;M.8.

0E2E: 0860 00 E9 10 00 8B 3E 1C 33-8B DF D1 E7 C7 85 30 32 .i...>.3._QgG.02

0E2E: 0870 00 00 43 93 A3 1C 33 83-3E 1C 33 19 7E E6 63 DB ..C.#.3.>.3.~f3[

0E2E: 0880 CD 3E 21 8B CB BB 01 00-BA D0 38 CD 3E 1F BB 01 M>!.K;..:P8M>.;.

0E2E: 0890 00 CD 3D 2B 23 DB 75 03-E9 06 00 CD 3E 23 E9 B4 .M=+#[u.i..M>#i4

0E2E: 08A0 00 BB 01 00 CD E1 CD E2-08 05 07 05 05 05 07 05 .;..MaMb........

0E2E: 08B0 07 BB 26 33 CD E3 BB 2A-33 CD E3 BB 2E 33 CD E3 . ;&3Mc;*3Mc; .3Mc

0E2E:08C0 BB 32 33 CD E3 BB 36 33-CD E3 BB 3A 33 CD E3 BB ;23Mc;63Mc;:3Mc;

0E2E: 08D0 3E 33 CD E3 BB 42 33 CD-E3 BB 42 33 BA 02 00 8B >3Mc;B3Mc;B3: ...

0E2E: 08E0 CB CD 3D 0B CD 3D 13 BF-2A 3B CD BD 8B D9 8B CA KM=.M=.?*;M=.Y.J

0E2E: 08F0 BA 04 00 CD 3D 0A CD 9D-89 CD 3D 13 CD B1 89 CD :..M=.M..M=.M1.M

0E2E: 0900 A5 BF 6A 33 CD A8 BE 6A-33 8B D6 CD A0 93 8B DA %?j3M<>j3.VM ..Z

0E2E: 0910 B9 64 00 99 F7 F9 93 CD-82 97 CD A8 8B F7 BF 74 9d..wy.M..M(.w?t

0E2E: 0920 3B CD CA 72 03 E9 07 00-8B FE BE 54 35 CD A6 BF ;MJr.i...~>T5M&?

0E2E: 0930 78 3B BE 6A 33 CD CA 73-03 E9 04 00 87 F7 CD A6 x;>j3MJs.i...wM&

0E2E: 0940 BE 6A 33 CD A0 8B FB D1-E7 8B 9D 30 32 43 89 9D >j3M . {Qg..02C..

0E2E: 0950 30 32 E9 39 FF BB 7C 3B-BA 54 33 CD 8C CD 3E 31 02i9.;!;:T3M.M>1

0E2E: 0960 BB 07 00 CD 3E 42 BB 0A-00 CD 3E 44 CD E6 BB 94 ;..M>B;..M>DMf;.

0E2E: 0970 3B CD 99 E8 37 23 BB A2-33 BA 58 33 CD 8C CD EA ;M.h7#;";:X3M.Mj

0E2E: 0980 BB 58 33 CD 99 CD EA BB-83 00 BA BC 37 CD 3D 0F ;X3M.Mj;_.:<7M=.

0E2E: 0990 CD 99 CD EA BB 2D 00 CD-3F 37 BB C2 37 CD 95 BB M.Mj;-.M?7;B7M.;

0E2E: 09A0 FC 3B CD 95 83 3E 32 32-00 74 03 E9 0A 00 CD EA !;M..>22.t.i..Mj

0E2E: 09B0 BB 60 3B CD 99 E9 0B 00-BB 10 3C CD EB 8B 1E 32 ; ;M.i..;.<Mk..2

0E2E: 09C0 32 CD 98 CD EA BB 2D 00-CD 3F 37 BB C2 37 CD 95 2M.Mj;-.M?7;B7M.

0E2E: 09D0 BB 26 3C CD 95 83 3E 3C-32 00 74 03 E9 0A 00 CD ;&<M..><2. t.i..M

0E2E: 09E0 EA BB 60 3B CD 99 E9 0B-00 BB 3C 3C CD EB 8B 1E j; ;M.i..;<<Mk..

0E2E: 09F0 3C 32 CD 98 CD EA BB 2D-00 CD 3F 37 BB C2 37 CD <2M.Mj;-.M?7;B7M

0E2E: 0A00 95 BB 50 3C CD 95 83 3E-3E 3200 74 03 E9 0A 00 .;P<M..>>2.t.i..

0E2E: 0A10 CD EA BB 60 3B CD 99 E9-0B 00 BB 3C 3C CD EB 8B Mj; ' ;M.i..;<<Mk.

0E2E: 0A20 1E 3E 32 CD 98 CD EA BB-2D 00 CD 3F 37 BB C2 37 .>2M.Mj;-.M?7;B7

0E2E: 0A30 CD 95 BB 66 3C CD 95 83-3E 40 32 00 74 03 E9 0A M.;f<M..>@2.t.i.

0E2E: 0A40 00 CD EA BB 60 3B CD 99-E9 0B 00 BB 3C 3C CD EB .Mj; ' ;M.i.. ;<<Mk

0E2E: 0A50 8B 1E 40 32 CD 98 CD EA-BB 2D 00 CD 3F 37 BB C2 ..@2M.Mj;-.M?7;B

0E2E: 0A60 37 CD 95 BB 7C 3C CD 95-83 3E 42 32 00 74 03 E9 7M. ;!<M..>B2. t.i

0E2E: 0A70 0A 00 CD EA BB 60 3B CD-99 E9 0B 00 BB 94 3C CD ..Mj;';M.ι..;.<M

0E2E: 0AB0 EB 8B 1E 42 32 CD 98 CD-EA BB 2D 00 CD 3F 37 BB k..B2M.Mj;-.M?7;

0E2E: 0A90 C2 37 CD 95 BB A6 3C CD-95 83 3E 44 32 00 74 03 B7M.;&<M..>D2.t.

0E2E: 0AA0 E9 0A 00 CD EA BB 60 3B-CD 99 E9 0B 00 BB BE 3C i..Mj;';M.i..;><

0E2E: 0AB0 CD EB 8B 1E 14 32 CD 98-CD EA BB 2D 00 CD 3F 37 Mk..D2M.Mj; -.M?7

0E2E: 0AC0 BB C2 37 CD 95 BB D0 3C-CD 95 37 3E 46 32 00 74 ;B7M.;P<M.. >F2.t

0E2E: 0AD0 03 E9 0A 00 CD EA BB 60-3B CD 99 E9 0B 00 BB EA .i..Mj;';M.i..;j 0E2E: 0AE0 3C CD EB 8B 1E 46 32 CD-98 CD EA BB 2D 00 CD 3F <Mk..F2M.Mj;-.M?

0E2E: 0AF0 37 BB C2 37 CD 95 BB FA-3C CD 95 83 3E 43 32 00 7;B7M.;z<M..>H2.

0E2E: 0B00 74 03 E9 0A 00 CD EA BB-60 3B CD 99 E9 0B 00 BB t.i..Mj;';M.i..;

0E2E: 0B10 14 3D CD EB 8B 1E 43 32-CD 98 CD EA BB 2D 00 CD .=Mk..H2M.Mj;-.M

0E2E: 0B20 3F 37 BB C2 37 CD 95 BB-24 3D CD 95 83 3E 4A 32 ?7;B7M.;$=M..>J2

0E2E: 0B30 00 74 03 E9 0A 00 CD EA-BB 60 3B CD 99 E9 0B 00 .t.i..Mj;';M.i..

0E2E: 0B40 BB 3C 3C CD EB 8B 1E 4A-32 CD 98 CD EA BB 2D 00 ;<<Mk..J2M.Mj;-.

0E2E: 0B50 CD 3F 37 BB C2 37 CD 95-BB 3A 3D CD 95 83 3E 4C M?7;B7M.;:=M..>L

0E2E: 0B60 32 00 74 03 E9 0A 00 CD-EA BB 60 3B CD 99 E9 0B 2.t.i..Mj;';M.i.

0E2E: 0B70 00 BB 3C 3C CD EB 8B 1E-4C 32 CD 98 CD EA BB 2D .;<<Mk..L2M.Mj;¬

0E2E: 0B80 00 CD 3F 37 BB C2 37 CD-95 BB 50 3D CD 95 83 3E .M?7;B7M.;P=M..>

0E2E: 0B90 4E 32 00 74 03 E9 0A 00-CD EA BB 60 3B CD 99 E9 N2.t.i..Mj;';M.i

0E2E: 0BA0 0B 00 BB 3C 3C CD EB 8B-1E 4E 32 CD 98 CD EA BB ..;<<Mk..N2M.Mj;

0E2E: 0BBO 2D 00 CD 3F 37 BB C2 37-CD 95 BB 66 3D CD 95 83 -.M?7;B7M.;f=M..

0E2E: 0BC0 3E 50 32 00 74 03 E9 0A-00 CD EA BB 60 3B CD 99 >P2.t.i..Mj;';M.

0E2E: 0BD0 E9 0B 00 BB 3C 3C CD EB-8B 1E 50 32 CD 98 CD EA i..;<<Mk..P2M.Mj

0E2E: 0BE0 BB 2D 00 CD 3F 37 BB C2-37 CD 95 BB 7C 3D CD 95 ;-.M?7;B7M.; !=M.

0E2E: 0BF0 83 3E 52 32 00 74 03 E9-0A 00 CD EA BB 60 3B CD .>R2.t.i..Mj;';M

0E2E: 0C00 99 E9 0B 00 BB 3C 3C CD-EB 8B 1E 52 32 CD 98 CD .i..;<<Mk..R2M.M

0E2E: 0C10 EA BB 2D 00 CD 3F 37 BB-C2 37 CD 95 BB 92 3D CD j;-.M?7;B7M.;.=M

0E2E: 0C20 95 83 3E 54 32 00 74 03-E9 0A 00 CD EA BB 60 3B ..>T2.t.i.-Mj;';

0E2E: 0C30 CD 99 E9 0B 00 BB 3C 3C-CD EB 8B 1E 54 32 CD 98 M.i..;<<Mk..T2M.

0E2E: 0C40 CD EA BB 2D 00 CD 3F 37-BB C2 37 CD 95 BB A8 3D Mj;-.M?7;B7M:;<=

0E2E: 0C50 CD 95 83 3E 56 32 00 74-03 E9 0A 00 CD EA BB 60 M..>V2.t.i..Mj;'

0E2E: 0C60 3B CD 99 E9 0B 00 BB 3C-3C CD EB 8B 1E 56 32 CD ;M.i..;<<Mk..V2M

0E2E: 0C70 98 CD EA BB 2D 00 CD 3F-37 BB C2 37 CD 95 BB BE .Mj;-.M?7;B7M.;>

0E2E: 0C80 3D CD 95 83 3E 58 32 00-74 03 E9 0A 00 CD EA BB =M..>X2.t.i..Mj ;

0E2E: 0C90 60 3B CD 99 E9 0B 00 BB-3C 3C CD EB 8B 1E 58 32 ';M.i..;<<Mk..X2

0E2E: 0CA0 CD 93 CD EA BB 2D 00 CD-3F 37 BB C2 37 CD 95 BB M. Mj; -.M?7; B7M. ;

0E2E: 0CB0 D4 3D CD 95 83 3E 5A 32-00 74 03 E9 0A 00 CD EA T=M..>Z2.t.i..Mj

0E2E: 0CC0 BB 60 3B CD 99 E9 0B 00-BB 10 3C CD EB 8B 1E 5A ;';M.i..;.<Mk..Z

0E2E: 0CD0 32 CD 98 BF 7E 33 BE E3-3D CD A6 B8 01 00 E9 17 2M.?~3>h=M&8..i.

0E2E: 0CE0 00 8B 3E 1C 33 D1 E7 8B-9D 30 32 CD 82 BF 7E 33 ..>.3Qg..02M.?~3

0E2E: 0CF0 CD AC CD A8 A1 1C 33 40-A3 1C 33 83 3E 1C 33 19 M,M(!.3@#.3.>.3.

0E2E: 0D00 7E DF CD EA BB 48 00 CD-3F 37 BB C2 37 CD 95 BB ~_Mj;H.M?7;B7M. ;

0E2E: 0D10 EC 3D CD 99 CD EA BB 2D-00 CD 3F 37 BB C2 37 CD 1=M.Mj;-.M?7;B7M

0E2E: 0D20 95 BB F8 3D CD 95 BB 3C-3C CD EB BB 7E 33 CD 96 . ;x=M.;<<Mk; ~3M.

0E2E: 0D30 C3 BB 0E 3E BA 54 33 CD-3C E8 76 23 CD 3E 31 BB C;.>:T3M.hv#M>1;

0E2E: 0D40 07 00 CD 3E 42 BB 0A 00-CD 3E 44 CD E6 BB 66 3B ..M>B;..M>DMf;f;

0E2E: 0D50 CD 99 BB 01 00 E9 31 00-BS 01 00 E9 1D 00 B8 2C M.8..i1.8..i..8,

0E2E: 0D60 00 F7 2E 43 33 97 03 3E-1C 33 D1 E7 D1 E7 31 C7 .w.H3..>.3QgGg.G

0E2E: 0D70 A4 27 BE E8 3D CD A6 A1-48 33 40 A3 48 33 83 3E $'>h=M&!H3@#H3.>

0E2E: 0D80 48 33 03 7E D9 A1 1C 33-40 A3 1C 33 83 3E 1C 33 H3.~Y:.3 #.3.>.3

0E2E:0D90 19 7E C5 33 DB CD 3E 21-8B CB BB 01 00 BA 26 3E .~E3[M>!.K;..:&>

0E2E: 0DA0 CD 3E 1F BB 01 00 CD 3D-2B 23 DB 75 03 E9 06 00 M>.;..M=+#[u.i..

0E2E: 0DB0 CD 3E 23 E9 0B 01 A1 32-33 40 A3 82 33 BB 08 00 M>#i..!.3@#.3;..

0E2E: 0DC0 CD 3E 42 BB 0E 00 CD 3E-44 CD E6 8B 1E 32 33 CD M>B;..M>DMf...3M

0E2E: 0DD0 9B BB 01 00 CD E1 CD E2-08 05 07 05 05 05 07 05 . ;..MaMb........

0E2E: 0DE0 07 BB 26 33 CD E3 BB 2A-33 CD E3 BB 2E 33 CD E3 .;&3Mc;-7Mc;.3Mc

0E2E: 0DF0 BB 32 33 CD E3 BB 36 33-CD E3 BB 3A 33 CD E3 BB ;23Mc;63Mc;:3Mc;

0E2E: 0E00 3E 33 CD E3 BB 42 33 CD-E3 BB 3A 33 BA 01 00 B9 >3Mc;83Mc;:3:..9

0E2E: 0E10 02 00 CD 3D 0A CD 3D 13-CD A3 93 A3 34 33 CD E6 ..M=.M=.H#.#.3Mf

0E2E: 0E20 8B 1E 84 33 CD 98 A1 86-33 3B 06 84 33 74 03 E9 ...3M.!.3;..3t.i

0E2E: 0E30 71 FP E8 83 23 BB 42 33-BA 02 00 8B CB CD 3D 0B q.h.#;B3:...kM=. 0E2E: 0E40 CD 3D 13 BF 2A 3B CD BD-8B D9 8B CA BA 04 00 CD M=.?*;M=.Y.J:..M

0E2E: 0E50 3D 0A CD 9D 89 CD 3D 13-CD B1 89 CD A5 BF 6A 33 =.M..M=.M1.M%?j3

0E2E: 0E60 CD A8 BE 6A 33 SB D6 CD-A0 93 8B DA B9 64 00 99 M(>j3.VM ..Z9d..

0E2E: 0E70 F7 F9 93 CD 82 97 CD A8-8B F7 BF 74 3B CD CA 72 wy.M..M(.w?t;MJr

0E2E: 0E80 03 E9 07 00 8B FE BE 54-35 CD A6 BF 78 3B BE 6A .i...~>T5M&?x;>j

0E2E: 0E90 33 CD CA 73 03 E9 04 00-37 F7 CD A6 B8 2C 00 F7 3MJs.i...wM&8,.w

0E2E: 0EA0 2E 38 33 97 BE 6A 33 CD-A0 03 FB D1 E7 Dl 17 81 ..3.>j3M .{QgQg.

0E2E: 0EB0 C7 A4 27 8B F7 BF 54 35-CD AA 8B FE CD A8 E9 E2 G$'.w?T5M*.~M(ib

0E2E: 0EC0 FE CD 3E 31 BB 07 00 CD-3E 42 BB 0A 00 CD 3E 44 ~M>1;..M>B;..M>D

0E2E: 0ED0 CD E6 BB 94 3B CD 99 E8-D3 1D BB 32 3E BA 58 33 Mf;.;M.hS.;2>:X3

0E2E: 0EE0 CD 8C BB 8C 3E BA 5C 33-CD 8C CD EA BB 58 33 CD M. ; . >:\3M.Mj;X3M

0E2E: 0EF0 99 CD EA BB 5C 33 CD 99-CD EA BB 83 00 BA BC 37 .Mj;\3M.Mj;..:<7

0E2E: 0F00 CD 3D 0F CD 99 CD EA BB-0F 00 CD 3F 37 BB C2 37 M=.M.Mj;..M?7;B7B

0E2E: 0F10 CD 95 BB 02 3F CD 95 BF-8A 33 BE 54 35 CD A6 E8 M.;.?M.?.3>T5M&h

0E2E: 0F20 AD 02 CD EA BB 0F 00 CD-3F 37 BB C2 37 CD 95 BB -.Mj;..M?7;B7M.;

0E2E: 0F30 1C 3F CD 95 BF 8A 33 BE-74 3B CD A6 E8 90 02 CD .?M.?.3>t;M&h..M

0E2E: 0F40 EA BB 0F 00 CD 3F 37 BB-C2 37 CD 95 BB 36 3F CD j;..M?7;B7M.;6?M

0E2E: 0F50 95 BF 8A 33 BE 4C 35 CD-A6 E8 73 02 CD EA BB 0F .?.3>L5M&hs.Mj;.

0E2E: 0F60 00 CD 3F 37 BB C2 37 CD-95 BB 50 3F CD 95 BF 8A .M?7;B7M.;P?M.?.

0E2E: 0F70 33 BE 6A 3F CD A6 EB 56-02 CD EA BB 0F 00 CD 3F 3>j?M&hV.Mj;..M?

0E2E: 0F80 37 BB C2 37 CD 95 BB 6E-3F CD 95 BF 8A 33 BE 50 7;B7M.;n?M.?.3>P

0E2E: 0F90 35 CD A6 E8 39 02 CD EA-BB 0F 00 CD 3F 37 BB C2 5M&h9.Mj;..M?7;B

0E2E: 0FA0 37 CD 95 BB 8B 3F CD 95-BF 8A 33 BE A2 3F CD A6 7M.; . ?M.?.3>'!?M&

0E2E: 0FB0 E8 1C 02 CD EA BB 0F 00-CD 3F 37 BB C2 37 CD 95 h..Mj;..M77;B7M.

0E2E: 0FC0 BB D0 3C CD 95 BF 8A 33-BE A6 3F CD A6 EB FF 01 ;P<M.?.3>&?M&h..

0E2E: 0FDO CD EA BB 0F 00 CD 3F 37-BB C2 37 CD 95 BB AA 3F Mj;..M?7;B7M.;*?

0E2E: 0FE0 CD 95 BF 8A 33 BE C4 3F-CD A6 E8 E2 01 CD EA BB M.?.3>D7M&hb.Mj;

0E2E: 0FF0 0F 00 CD 3F 37 BB C2 37-CD 95 BB C8 3F CD 95 BF ..M?7:B7M.;H?M.?

0E2E: 1000 BA 33 BE E2 3F CD A6 E8-C5 01 CD EA BB 0F 00 CD .3>b?M&hE.Mj;..M

0E2E: 1010 3F 37 BB C2 37 CD 95 BB-E6 3F CD 95 BF 8A 33 BE ?7;B7M.;f?M.?.3>

0E2E: 1020 00 40 CD A6 E8 A8 01 CD-EA BB 0F 00 CD 3F 37 BB .@M&h(.Mj;..M?7;

0E2E: 1030 C2 37 CD 95 BB 04 40 CD-95 BF 8A 33 BE 1E 40 CD B7M.;.@M.?.3>.@M

0E2E: 1040 A6 E8 8B 01 CD EA BB 0F-00 CD 3F 37 BB C2 37 CD &h..Mj;..M?7;B7M

0E2E: 1050 95 BB 22 40 CD 95 BF 8A-33 BE 3C 40 CD A6 E8 6E .;"@M.?.3><@M&hn

0E2E: 1060 01 CD EA BB 0F 00 CD 3F-37 BB C2 37 CD 95 BB 40 .Mj;..M?7;B7M.;@

0E2E: 1070 40 CD 95 BF 8A 33 BE 5A-40 CD A6 E8 51 01 CD EA ©M.?.3>Z@M&hQ.Mj

0E2E; 1080 BB 0F 00 CD 3F 37 BB C2-37 CD 95 BB 5E 40 CD 95 ; ..M?7;B7M. :^Λ@M.

0E2E: 1090 BF 8A 33 BE 78 40 CD A6-E8 34 01 CD EA BB 0F 00 ?.3>x@M&h4.Mj;..

0E2E: 10A0 CD 3F 37 BB C2 37 CD 95-BB 7C 40 CD 95 BF 8A 33 M?7;B7M.;!@M.?.3

0E2E: 10B0 BE 96 40 CD A6 EB 17 01-CD EA BB 0F 00 CD 3F 37 >.@M&h..Mj;..M?7

0E2E: 10C0 BB C2 37 CD 95 BB 9A 40-CD 95 BF 8A 33 BE B4 40 ;B7M.;.@M.?.3>4@

0E2E: 10D0 CD A6 E3 FA 00 CD EA BB-0F 00 CD 3F 37 BB C2 37 M&hz.Mj;..M?7;B7

0E2E: 10E0 CD 95 BB B8 40 CD 95 BF-8A 33 BE 78 3B CD A6 EB M.;8@M.?.3>x;M&h

0E2E: 10F0 DD 00 B8 01 00 E9 58 00-8B 3E 48 33 D1 E7 C7 85 1.8..iX..>H3QgG.

0E2E: 1100 30 32 00 00 B8 01 00 E9-38 00 8B 3E 43 33 8B DF 02..8..i8..>H3._

0E2E: 1110 D1 E7 8B D3 8B 9D 30 32-CD 82 8B DA B8 2C 00 F7 Qg.S..02M..Z8,.w

0E2E: 1120 EA 96 03 36 1C 33 D1 E6-D1 E6 81 C6 A4 27 8B DF i..6.3QfQf.F$'._

0E2E: 1130 8B FE CD AC 8B D3 CD A2-8B FA 89 9D 30 32 A1 1C .~M,.SM".z..02!.

0E2E: 1140 33 40 A3 1C 33 03 3E 1C-33 19 7E BE A1 48 33 40 3@#.3.>.3.~>!H3@

0E2C: 1150 A3 48 33 83 3E 43 33 07-7E 9E CD EA BB 0F 00 CD #H3.>H3.~.Mj;..M

0E2E: 1160 3F 37 BB C2 37 CD 95 BB-D2 40 CD 95 B8 01 00 E9 ?7;B7M.;R@M.8..i

0E2E: 1170 0B 00 CD EA BB EC 40 CD-95 A1 48 77 40 A3 48 33 ..Mj;1@M.!H3@#H3

0E2E: 1180 83 3E 48 33 07 7E ED CD-EA BB 60 3B CD 99 CD EA .>H3.~kMj;';M.Mj

0E2E: 1190 BB 0F 00 CD 3H 37 BB C2-37 CD 95 BB FC 40 CD 95 ;..M?7;B7M.;:@M. 0E2E: 11A0 B8 01 00 E9 17 00 BB EA-3C CD EB BB 3E 18 33 8B 8..i..;j<Mk.>H3.

0E2C: 11B0 DF D1 E7 8B D3 8B 9D 30-32 CD 94 42 92 A3 48 33 _Qg.S..02M.B.#H3

0E2C: 11C0 83 3E 48 33 07 7E DF CD-EA BB 60 3B CD 99 C3 B8 .>H3.~_Mj;';M.C8

0E2E: 11D0 01 00 E9 21 00 BB EA 3C-CD EB B8 2C 00 F7 2E 48 ..i!.;j<Mk8,.w.H

0E2E: 11E0 33 BE 8A 33 CD A0 03 D8-D1 E3 D1 E3 81 C3 A4 27 3>.3M .XQcQc.C$'

0E2E: 11F0 CD 92 A1 48 33 40 A3 48-33 83 3E 48 33 07 7E D5 M.!H3@#H3.>H3.~U

0E2E: 1200 CD EA BB 60 3B CD 99 C3-CD 3E 31 BB 0A 00 CD 3E Mj;';M.CM>1;..M>

0E2E: 1210 42 BB 01 00 CD 3E 44 BB-16 41 CD E0 00 CD E2 01 B;..M>D;.AM'.Mb.

0E2E: 1220 07 BB 8E 33 CD E3 93 BB-4A 41 CD 8D BA 00 00 74 .;.3Mc.;JAM.:..t

0E2E: 1230 01 4A BB 52 41 CD 8D B9-00 00 74 01 49 23 CA 23 .J; RAM.9.. t. I#J#

0E2E: 1240 C9 75 03 E9 0A 00 CD E6-BB 5A 41 CD 99 E9 B8 FF Iu.i..Mf;ZAM.i8.

0E2E: 1250 BB 4A 41 B8 8E 33 CD BD-74 03 E9 09 00 E8 52 1E ;JA8.3M.t.i..hR.

0E2E: 1260 E8 CC 1B E8 CE 1C A1 92-33 A3 94 33 B8 01 00 E9 hL.hN. !.3#.38..i

0E2E:1270 34 00 BB 02 00 CD 3E 42-BB 46 00 CD 3E 44 CD E6 4.;..M>B;F.M>DMf

0E2E:1280 8B 1E 96 33 D1 E3 D1 E3-81 C3 F6 1B CD 96 8B F3 ...3QcQc.Cv.M..s

0E2E:1290 BF 26 33 CD A6 E8 1B 00-CD EA BB 0C 00 CD 3D 05 ?&3M&h..Mj;..M=.

0E2E: 12A0 CD 99 A1 96 33 40 A3 96-33 A1 94 33 3B 06 96 33 M.!.3@#.3!.3;..3

0E2E: 12B0 7D C0 C3 33 DB CD 3E 21-BB CB BB 02 00 BA E0 38 }@C3[M>!.K;...:'8

0E2E: 12C0 CD 3E 1F BB 02 00 CD 3D-2B 23 DB 75 03 E9 14 00 M>.;..M=+#[u.i..

0E2E: 12D0 BB 02 00 CD 3E 22 8B 1E-1C 33 CD 82 BF 98 33 CD ;..M>"...3M.7.3M

0E2E: 12E0 A8 E9 56 00 A1 1C 33 40-A3 1C 33 BB 02 00 CD E1 (iV.!.3@#.3;..Ma

0E2E: 12F0 CD E2 06 05 07 07 07 07-04 8B 1E 1C 33 8B D3 D1 Mb..........3.SQ

0E2E: 1300 E3 D1 E3 8B CB 81 C3 42-0C CD E3 8B D9 81 C1 66 cQc.K.CB.Mc.Y.Af

0E2E: 1310 0F 8B C3 8B D9 CD E3 8B-D8 05 8A 12 93 CD E3 8B ..C.YMc.X....Mc.

0E2E: 1320 D8 05 AE 15 93 CD E3 05-3E 22 93 CD E3 D1 E2 81 X....Mc.>".McQb.

0E2E: 1330 C2 62 25 8B DA CD E3 E9-89 FF BB 8A 41 BA 54 33 Bb%.ZMci..;.A:T3

0E2E: 1340 CD 8C BB 52 41 B8 8E 33-CD 8D 74 03 E9 03 00 E8 M.;RA8.3M.t.i..h

0E2E: 1350 60 1D E8 D0 1D E8 55 19-CD EA BB A8 41 CD 95 BB '.hP.hU.Mj; (AM.;

0E2E: 1360 B2 41 CD EB BE 9C 33 CD-A0 D1 E3 D1 E3 8B D3 81 2AMk>.3M QcQc.S.

0E2E: 1370 C3 AE 15 93 BB 60 3B 8B-CB CD 80 8B C2 31 C2 8A C...;';.KM..B.B.

0E2E: 1380 12 89 5E FE 8B DA 89 46-FC 8B 46 FE CD 80 CD 95 ..^Λ~.Z.F!.F~M.M.

0E2E: 1390 CD EA BB 67 00 CD 3F 37-BB C2 37 CD 95 BB D2 41 Mj;g.M?7;B7M.;RA

0E2E: 13A0 CD 95 BB EA 41 CD EB 8B-5E FC 81 C3 42 0C CD 96 M.;jAMk.^Λ!.CB.M.

0E2E: 13B0 CD EA 8B D9 CD 99 BB F4-41 BA 58 33 CD 8C BB 7A Mj.YM.;tA:X3M.;z

0E2E: 13C0 42 BA 5C 33 CD 8C BB 00-43 BA 60 33 CD 8C CD EA B:\3M.;.C:'3M.Mj

0E2E: 13D0 BB 53 33 CD 99 CD EA BB-5C 33 CD 99 CD EA BB 60 ;X3M.Mj;\3M.Mj:'

0E2E: 13E0 33 CD 99 CD EA BB 83 00-BA BC 37 CD 3D 0F CD 99 3M.Mj;..:<7M=.M.

0E2E: 13F0 C7 06 A0 33 00 00 33 DB-CD 3E 21 8B CB BB 02 00 G. 3..3[M>!.K;..

0E2E: 1400 BA 26 3E CD 3E 1F BB 02-00 CD 3D 2B 23 DB 75 03 :&>M>.;..M=+#[u.

0E2E: 1410 E9 06 00 CD 3E 23 E9 53-03 BB 02 00 CD E1 CD E2 i..M>#iS.;..MaMb

0E2E: 1420 08 05 07 05 05 05 07 05-07 EB A2 33 CD E3 BB 2A .........;"3Mc;*

0E2E: 1430 33 CD E3 BB 2E 33 CD E3-BB 32 33 CD E3 BB 36 33 3Mc;.3Mc;23Mc;63

0E2E: 1440 CD E3 BB 3A 33 CD E3 BB-3E 33 CD E3 BB 42 33 CD Mc;:3Mc;>3Mc;B3M

0E2E: 1450 E3 BB 3A 33 BA 02 00 CD-3D 0B CD 3D 13 CD A3 93 c;:3;..M=.M=.M#.

0E2E: 1460 A3 84 33 A1 36 33 3B 06-34 33 75 9A BF 26 33 BE #.3!.3;..3u.?&3>

0E2E: 1470 A2 33 CD CA 75 90 BF 26-33 BE A2 33 CD CA 75 86 "3MJu.?&3>"3MJu.

0E2E: 1480 E8 35 1D BB B4 3A CD EB-BB A6 33 BA 03 00 CD 3D h5.;4:Mk;&3:..M=

0E2E: 1490 0B 8B D3 8B 1E AA 33 CD-7D 10 92 CD 30 93 BB 34 ..S..*3M=..M..;.

0E2E: 14A0 43 CD 80 93 BB AC 33 CD-80 93 BB 8C 43 CD 80 CD CM..;,3M..;.CM.M

0E2E: 14B0 95 CD E6 BB 92 43 CD 95-BB A2 33 CD BE BC 26 33 .Mf;.CM.;"3M.;&3

0E2E: 14C0 CD 96 BB 2A 33 BA 0C 00-B9 04 00 CD 3D 0A BA B0 M.;#3:..9..M=.:3

0E2E: 14D0 33 CD 3C BE FC 31 CD 9E-8B DA CD 9D 89 CD 3D 13 3M.>! 1M.. ZH.. M=.

0E2E: 14E0 8B DE CD B1 89 CD A5 0B-FB CD A8 BB 2A 33 BA 15 .^ΛM1.M%.(M(;=3:.

0E2E: 14F0 00 B9 04 00 CD 3D 0A Bo-B4 33 CD 80 BE 04 32 CD .9..M=.:43H.>.2M 0E2E: 1500 9E 8B DA CD 9D 89 CD 3D-13 8B DE CD B1 89 CD A5 ..ZM..M=..^ΛM1.M% 0E2E: 1510 8B FB CD A8 BB 2A 33 BA-1C 00 B9 04 00 CD 3D 0A .{M(;*3:..9..M=. 0E2E: 1520 BA B8 33 CD 8C BE 08 32-CD 9E 8B DA CD 9D 89 CD :83M.>.2M..ZM..M 0E2E: 1530 3D 13 BB DE CD B1 89 CD-A5 8B FB CD A8 BB 2A 33 =..^ΛM1.M%. {M (;*3 0E2E: 1540 BA 23 00 B9 04 00 CD 3D-0A BA BC 33 CD 8C BE 0C :#.9..M=.:<3M.>. 0E2E: 1550 32 CD 9E 8B DA CD 9D 89-CD 3D 13 8B DE CD B1 89 2M..ZM..M=..^ΛM1. 0E2E: 1560 CD A5 8B FB CD A8 BB 2A-33 BA 2A 00 B9 05 00 CD MX.{M(;*3:*.9..M 0E2E: 1570 3D 0A BA C0 33 CD 8C E8-F0 1C BB 2A 33 BA 31 00 =.:@3M.hp.;*3:1. 0E2E: 1580 B9 03 00 CD 3D 0A BA C4-33 CD 8C BE 14 32 CD 9E 9..M=.:D3M.>.2M. 0E2E: 1590 8B DA CD 9D 89 CD 3D 13 -8B DE CD B1 89 CD A5 8B .ZM.. M=..^ΛM1. M%. 0E2E: 15A0 FB CD A8 BB 2A BA 37 -00 B9 03 00 CD 3D 0A BA {M(;*3:7.9..M=.: 0E2E: 15B0 C8 33 CD 8C BE 18 32 CD -9E 8B DA CD 9D 89 CD 3D H3M.>.2M..ZM..M= 0E2E: 15C0 13 8B DE CD B1 89 CD A5 -8B FB CD A8 BB C8 33 CD ..^ΛM1.M%.{M(;H3M 0E2E: 15D0 3D 13 BE 9C 33 CD 9D B9 -CD A0 8B FB D1 E7 8B 9D =.>.3M..M .{Qg.. 0E2E: 15E0 62 25 CD 82 CD 9F CD B9-89 BF 2A 3B CD BD BB 16 b%M.M.M9.?*;M=;. 0E2E: 15F0 00 CD 3D 04 CD A3 93 A3-CC 33 8B 1E CC 33 CD 3D .M=.M#.#L3..L3M= 0E2E: 1600 10 B8 9C 43 CD 80 BA 03-00 CD 3D 0C BA CE 33 CD .8.CM.:..M=.:N3M 0E2E: 1610 8C B8 64 00 F7 2E CC 33-93 CD 82 BF D2 33 CD B4 .8d.w.L3.M.?R3M4 0E2E: 1620 BB 1A 00 CD 3D 03 CD A2-93 A3 D6 33 8B 1E D6 33 ;..M=.M".#V3..V3 0E2E: 1630 CD 3D 10 B8 9C 43 CD 80-BA 03 00 CD 3D 0C BA D8 M=.8.CM.:..M=.:X 0E2E: 1640 33 CD 8C BB D0 3A CD EB-BB B0 33 CD 95 BB E2 3A 3M.;P:Mk;03M.;b: 0E2E: 1650 CD EB BB B4 33 CD 95 BB-F0 3A CD EB BB B8 33 CD Mk;43M.;p:Mk;83M 0E2E: 1660 95 BB F0 3A CD EB BB BC-33 CD 95 BB D0 3A CD EB .;p:Mk;<3M.;P:Mk 0E2E: 1670 BB C0 33 CD 95 BB FC 3A-CD EB BB C4 33 CD 95 BB ;@3M.; !:Mk;D3M.; 0E2E: 1680 D0 3A CD EB BB CB 33 CD-95 BB 10 3B CD EB BB CE P:Mk;H3M.;.;Mk;N 0E2E: 1690 33 CD 95 BB F0 3A CD EB-BB D8 33 CD 95 BB 42 33 3M.;p:Mk;X3M.;B3 0E2E: 16A0 BA 02 00 8B CB CD 3D 0B-CD 3D 13 BF 2A 3B CD BD :...KM=.M=.?*;M= 0E2E: 16B0 BB D9 8B CA BA 04 00 CD-3D 0A CD 9D 89 CD 3D 13 .Y.J:..M=.M..M=. 0E2E: 16C0 CD B1 89 CD A5 BF 6A 33-CD A8 BB 32 3B BA 6E 33 M1.M%?j3M(;2;:n3 0E2E: 16D0 CD 8C BF 38 3B BE 6A 33-CD CA 77 03 E9 18 00 BB M.?8;>j3MJw.i..; 0E2E: 16E0 3C 3B CD 8C BF 42 3B CD-CA 77 03 E9 09 00 BF 46 <;M.?B;MJw.i.. ?F 0E2E: 16F0 3B CD AA 8B FE CD A8 BE-6A 33 CD A0 93 B9 64 00 ;M*.~M(>j3M .9dd 0E2E: 1700 99 F7 F9 93 CD 3D 10 BA-02 00 CD 3D 0C BA 72 33 .wy.M=.:..M=.:r3 0E2E: 1710 CD 8C 92 BB 4A 3B CD 8D-74 03 E9 06 00 92 BB 50 M..;J;M.t.i...;P 0E2E: 1720 3B CD 8C BF 56 3B BE 6A-33 CD AA BB 1A 00 CD 3D ;M.?V;>j3M*;..M= 0E2E: 1730 11 BA 02 00 CD 3D 0C BA-76 33 CD 8C BB 5A 3B B8 .:..M=.:v3M.;Z;8 0E2E: 1740 72 33 CD 80 93 BB 76 33-CD 80 93 BB 60 3B CD 80 r3M..;v3M..;';M. 0E2E: 1750 93 BB 6E 33 CD 80 BA 7A-33 CD 8C CD EA BB 7A 33 .;n3M.:z3M.Mj;z3 0E2E: 1760 CD 99 A1 A0 33 40 A3 A0-33 E9 9A FC CD EA BB A4 M.! 3@# 3i. !Mj;$ 0E2E: 1770 43 CD 95 CD EA BB 71 00-BA BA 43 CD 3D 0F CD 99 CM.Mj;q.::CM=.M. 0E2E: 1780 BB C0 43 CD EB BB D8 43-CD 95 B8 01 00 E9 20 00 ;@CMk;XCM.8..i . 0E2E: 1790 BB 3E 1C 33 8B DF D1 E7-D1 E7 81 C7 F4 31 8B D3 .>.3._QgQg.Gt1.S 0E2E: 17A0 8B 1E A0 33 CD 82 8B F7-CD B6 8B FE CD AB 42 92 .. 3M..wM6.~M(B. 0E2E: 17B0 A3 1C 33 83 3E 1C 33 0D-7E D6 BE 10 CD A0 93 #.3.>.3.~V>.2M . 0E2E: 17C0 B9 3C 00 8B D8 99 F7 F9-A3 DC 33 93 99 F7 F9 8B 9<..X.wy#\3..wy. OE2E: 17D0 DA CD 82 BF D2 33 CD A8-BE 9C 33 CD A0 8B FB D1 ZM.?R3M(>.3M . {Q 0E2E: 17E0 E7 8B 9D 62 25 CD 82 BE-18 32 CD B6 BF 3B CD g..b%M.>.2M6?V;M 0E2E: 17F0 BC CD A2 93 A3 CC 33 B8-64 00 F7 2E CC 33 93 CD <M".#L38d.w.L3.M 0E2E: 1800 82 BF 10 32 CD B4 CD A2-93 A3 D6 33 BB 06 33 CD .?.2M4M".#V3;-3M 0E2E: 1810 EB BB FC 31 CD 92 BB 04-32 CD 92 BB 0B 32 CD 92 h;!1M.;.2M.;.2M. 0E2E: 1820 BB 0C 32 CD 92 CD EA 8B-1E DC 33 CD 3D 10 B8 60 ;.2M.Mj..\3M=.8 0E2E: 1830 3B CD 80 BA 0200 CD 3D-0C 93 BB 5A 3B CD B0 BF ;M.:..M=..;Z;M.? 0E2E: 1840 56 3B BE D2 33 CD AA 8B-CB BB 1A 00 CD 3D 11 CD V;>R3M*.K;..M=.M 0E2E: 1850 3D 0C 91 CD 80 CD 95 8B-0A 33 CD EP BB 14 32 CD =..M.M.;.3Mk;.2M 0E2E: 1860 92 BB 18 32 CD 92 8B 1E-CC 33 CD 94 8B 1E D6 33 .;.2M...L3M...V3

0E2E: 1870 CD 98 CD EA BB 60 3B CD-99 BB FC 3A CD EB BB EC M.Mj;';M.; !:Mk;1

0E2E: 1080 43 CD 95 CD EA 8B 1E A0-33 CD 98 CD EA BB 60 3B CM.Mj.. 3M.Mj;';

0E2E: 1390 CD 99 CD EA 8B D3 BB FE-43 CD 99 CD EA 8B DA CD M.Mj.S;~CM.Mj.ZM

0E2E: 18A0 99 BE 9C 33 CD A0 D1 E3-D1 E3 81 C3 3E 22 BA 01 .>.3M QcQc.C>":.

0E2E: 18B0 00 CD 3D 0B 93 BB 18 44-CD 3D 74 03 E9 0B 00 BF .M=..;.DM.t.i..?

0E2E: 18C0 DE 33 BE 1E 44 CD A6 E9-08 00 BF DE 33 BE B4 40 ^Λ3>.DM&i..?^Λ3>4@

0E2E: 18D0 CD A6 BE 3E 33 CD A0 93-B9 05 00 99 F7 F9 93 CD M&>>3M ,9...wy.M

0E2E: 18E0 82 BF DE 33 CD AC BF 22-44 CD AC BF E2 33 CD A8 .?^Λ3M,?"DM,?b3M(

0E2E: 18F0 CD E6 8B F7 CD A0 D1 E3-D1 E3 8B D3 81 C3 F4 26 Mf.wM QcQc.S.Ct&

0E2E: 1900 CD 91 81 C2 3E 22 8B DA-CD 99 BB C0 43 CD EB BE M..B>".ZM.;@CMk>

0E2E: 1910 E2 33 CD A0 D1 E3 D1 E3-8B D3 81 C3 F4 26 93 BB b3M QcQc.S.Ct&.;

0E2E: 1920 60 3B CD 80 81 C2 3E 22-8B CB 8B DA 91 CD 80 CD ';M..B>".K.Z.M.M

0E2E:1930 95 BF E6 33 BE E2 33 CD-A6 BE E6 33 CD A0 8B FB .?f3>b3M&>f3M . {

0E2E: 1940 D1 E7 83 BD 30 32 00 74-03 E9 07 00 CD EA BB 60 Qg.=02.t.i..Mj;'

0E2E: 1950 3B CD 99 BE E6 33 CD A0-8B FB D1 E7 83 BD 30 32 ;M.>f3M .{Qg.=02

0E2E: 1960 00 75 03 E9 37 00 8B D3-BB 06 33 CD EB D1 E2 D1 .u.i7..S;.3MkQbQ

0E2E: 1970 E2 8B DA 81 C2 54 28 8B-CB 8B DA CD 92 8B D9 81 b.Z.BT(.K.ZM..Y.

0E2E: 1980 C1 04 29 8B D3 8B D9 CD-92 8B DA 81 C2 B4 29 8B A.).S.YM..Z.B4).

0E2E: 1990 CB 8B DA CD 92 81 C1 64-2A 8B D9 CD 92 CD EA BE K.ZM..Ad*.YM.Mj>

0E2E: 19A0 E6 33 CD A0 D1 E3 D1 E3-8B D3 81 C3 84 2E CD 3D f3M QcQc.S.C..M=

0E2E: 19B0 11 B8 26 44 CD 80 8B CA-BA 02 00 CD 3D 0C 93 BB .8&DM..J:..M=..;

0E2E: 19C0 5A 3B CD 80 81 C1 34 2F-8B F1 BF 56 3B CD AA 8B Z;M..A4/.q?V;M*.

0E2E: 19D0 CB BB 1A 00 CD 3D 11 CD-3D 0C 91 CD 80 CD 95 BB K;..M=.M=..M.M.;

0E2E: 19E0 0A 33 CD EB BE E6 33 CD-A0 D1 E3 D1 E3 8B D3 81 .3Mk>f3M QcQc.S.

0E2E: 19F0 C3 C4 2B CD 92 8B DA 81-C2 74 2C BB CB 8B DA CD CD+M..Z.Bt,.K.ZM

0E2E: 1A00 92 8B D9 81 C1 24 2D 8B-D3 8B D9 CD 92 81 C2 D4 ..Y.A$-.S.YM..BT

0E2E: 1A10 2D 8B DA CD 96 BB EA 33-BA 01 00 CD 3D 0B 93 BB -.ZM.;j3:..M=..;

0E2E: 1A20 18 44 CD 3D 74 03 E9 0B-00 BF E6 33 BE 2C 44 CD .DM.t.i..?f3>,DM

0E2E: 1A30 A6 E9 08 00 BF E6 33 BE-30 44 CD A6 BB C0 43 CD &i..?f3>ODM&;@CM

0E2E: 1A40 EB BE E6 33 CD A0 D1 E3-D1 E3 8B D3 81 C3 F4 26 k>f3M QcQc.S.Ct&

0E2E: 1A50 93 BB 60 3B CD 80 81 C2-3E 22 8B CB BB DA 91 CD .;';M..B>".K.Z.M

0E2E: 1A60 80 CD 95 BE E6 33 CD A0-8B FB D1 E7 83 BD 30 32 .M.>f3M . {Qg.=02

0E2E: 1A70 00 74 03 E9 07 00 CD EA-BB 60 3B CD 99 BE E6 33 .t.i..Mj;';M.>f3

0E2E: 1A80 CD A0 8B FB D1 E7 83 BD-30 32 00 75 03 E9 37 00 M . {Qg.=02.u.i7.

0E2E: 1A90 8B D3 BB 06 33 CD EB D1-E2 D1 E2 8B DA S1 C2 54 .S;.3MkQbQb.Z.BT

0E2E: 1AA0 28 8B CB 8B DA CD 92 8B-D9 81 C1 04 29 8B D3 8B (.K.ZM..Y.A.).S.

0E2E: 1AB0 D9 CD 92 8B DA 31 C2 B4-29 8B CB 8B DA CD 92 81 YM..Z.B4).K.ZM..

0E2E: 1AC0 C1 64 2A 8B D9 CD 92 CD-EA BE E6 33 CD A0 D1 E3 Ad*.YM.Mj>f3M Qc

0E2E: 1AD0 D1 E3 8B D3 81 C3 84 2E-CD 3D 11 B8 26 44 CD 80 Qc.S.C..M=.8&DM.

0E2E: 1AE0 8B CA BA 02 00 CD 3D 0C-93 BB 5A 3B CD S0 81 C1 .J:..M=..;Z:M..A

0E2E: 1AF0 34 2F 8B F1 BF 56 3B CD-AA 8B CB BB 1A 00 CD 3D 4/.q?V;M*.K;..M=

0E2E: 1B00 11 CD 3D 0C 91 CD S0 CD-95 BB 0A 33 CD EB BE E6 .M=..M.M.;.3Mk>f

0E2E: 1B10 33 CD A0 D1 E3 D1 E3 8B-D3 81 C3 C4 2B CD 92 8B 3M QcQc.S.CD +M..

0E2E: 1B20 DA 31 C2 71 2C 8B CB BB-DA CD 92 8B D9 81 C1 24 Z.Bt,.K.ZM..Y.A$

0E2E: 1B30 2D 8B D3 8B D9 CD 92 33-C2 D4 2D 8B DA CD 96 BF -.S.YM..BT-.ZM.?

0E2E: 1B40 E6 33 BE 34 44 CD A6 BB-C0 43 CD EB BE E6 33 CD f3>4DM&;@CMk >f3M

0E2E: 1BE0 A0 D1 E3 D1 E3 8B D3 81-C3 F4 26 93 BB 60 3B CD QcQc.S.Ct&. ; ':M

0E2E: 1B60 30 81 C2 3E 22 8D CB 8B-DA 91 CD 80 CD 95 BE E6 ..B>".K.Z.M.M.>f

0E2E: 1B70 33 CD A0 8B FB D1 E7 83-BD 30 32 00 74 03 E9 07 3M . {Qg.=02. t.i.

0E2E: 1B80 00 CD EA BB 60 3B CD 99-BE E633 CD A0 8B FB D1 .Mj: ' ;M.>f3M . {0

0E2E: 1B90 E7 83 BD 30 32 00 75 03-E9 37 00 8B D3 BB 06 33 g.=02. u. i 7.. S; .3

0E2E: 1BA0 CD EB D1 E2 D1 E2 8B DA-81 D2 54 28 8B CB 8B DA MkQbQb.Z.bT(.K.Z

0E2E: 1BB0 CD 92 8B D9 81 C0 04 29-8B D3 8B D9 CD 92 8B DA M..Y. A.).S.YM..Z 0E2E: 1BC0 81 C2 B4 29 8B CB 8B DA-CD 92 81 C1 64 2A 8B D9 .B4).K.ZM..Ad*.Y

0E2E: 1BD0 CD 92 CD EA BE E6 33 CD-A0 D1 E3 D1 E3 8B D3 81 M-Mj>f3M QcQc.S.

0E2E: 1BE0 C3 84 2E CD 3D 11 B8 26-44 CD 80 8B CA BA 02 00 C..M=.8&DM..J: ..

0E2E: 1BF0 CD 3D 0C 93 BB 5A 3B CD-80 81 C1 34 2F BB F1 BF M=.. ;Z;M..A4/.q?

0E2E: 1C00 56 3B CD AA 8B CB BB 1A-00 CD 3D 11 CD 3D 0C 91 V;M*.K;..M=.M=..

0E2E: 1C10 CD 80 CD 95 BB 0A 33 CD-EB BE E6 33 CD A0 D1 E3 M.M.; .3Mk>f3M Qc

0E2E: 1C20 D1 E3 8B D3 81 C3 C4 2B-CD 92 8B DA 81 C2 74 2C Qc.S.CD+M..Z.Bt,

0E2E: 1C30 8B CB 8B DA CD 92 8B D9-81 C1 24 2D 8B D3 8B D9 .K.ZM..Y.A$-.S.Y

0E2E: 1C40 CD 92 81 C2 D4 2D 8B DA-CD 96 C3 BB 38 44 BA 54 M..BT-.ZM.C;8D:T

0E2E: 1C50 33 CD 8C BB 54 44 BA 58-33 CD 8C BB D8 44 BA 5C 3M. ;TD:X3M. ; XD: \

0E2E: 1C60 33 CD 8C BB 5A 45 BA 60-33 CD 8C BB DC 45 BA EE 3M.;ZE:'3M. ;\E:n

0E2E: 1C70 33 CD 8C 33 DB CD 3E 21-8B CB BB 02 00 BA 5E 46 3M.3[M>! .K; .. :^F

0E2E: 1C80 CD 3E 1F BB 02 00 CD 3D-2B 23 DB 75 03 E9 0E 00 M>. ; ..M=+#[u.i..

0E2E: 1C90 CD 3E 23 CD E6 BB 6E 46-CD 99 E8 81 11 C3 BB 02 M>#Mf;nFM.h..C;.

0E2E: 1CA0 00 CD E1 CD E2 10 05 04-05 05 05 05 05 05 05 07 .MaMb...........

0E2E: 1CB0 07 07 07 07 07 07 BB F2-33 CD E3 BB F6 33 CD E3 ......;r3Mc;v3Mc

0E2E: 1CC0 BB F8 33 CD E3 BB FC 33-CD E3 BB 00 34 CD E3 BB ;x3Mc; !3Mc; .4Mc;

0E2E: 1CD0 04 34 CD E3 BB 08 34 CD-E3 BB 0C 34 CD E3 BB 10 .4Mc; .4Mc;.4Mc;.

0E2E: 1CE0 34 CD E3 BB 66 33 CD E3-BB 14 34 CD E3 BB 18 34 4Mc;f3Mc; .4Mc; .4

0E2E: 1CF0 CD E3 BB 1C 34 CD E3 BB-20 34 CD E3 BB EA 33 CD Mc;.4Mc; 4Mc; j3M

0E2E: 1D00 E3 BB 22 33 CD E3 BB A0-46 CD 3D 2F BF A4 46 CD C;"3Mc; FM=/?$FM

0E2E:1D10 BC BF A8 46 CD AC BB 1A-00 CD 3D 03 8B 1E F6 33 <?(FM,; ..M=...v3

0E2E: 1D20 CD 9C 89 CD 82 CD C0 89-BF 08 34 CD A8 BB AC 46 M..M.M@.?.4M(; ,F

0E2E: 1D30 BA 24 34 CD 8C C7 06 A0-33 00 00 BF 28 34 BE F2 :$4M.G. 3..?(4>r

0E2E: 1D40 33 CD A6 BF 2C 34 BE A0-46 CD A6 CD EA BB 0C 00 3M&?,4> FM&Mj;..

0E2E: 1D50 CD 3D 05 CD 99 E8 55 0F-BB 18 34 BA 02 00 8B CB M=.M.hU.;.4: ...K

0E2E: 1D00 CD 3D 0B CD 3D 13 CD A3-93 A3 30 34 8B D9 8B CA M=.M=.M#.#04.Y.J

0E2E: 1D70 BA 04 00 8B C3 CD 3D 0A-CD 3D 13 CD A3 93 A3 32 :...CM=.M=.M#.#2

0E2E: 1D80 34 8B D1 CD 3D 0C CD 3D-13 BF B4 46 CD AD CD A5 4.QM=.M=. ?4FM-M%

0E2E: 1D90 BF 34 34 CD A8 CD 3D 23-BA 02 00 CD 3D 0B CD 3D ?44M (M=#: ..M=.M=

0E2E: 1DA0 13 CD A3 93 A3 38 34 CD-3D 23 8B CA BA 04 00 CD .M#.#84M=#.J:..M

0E2E: 1DB0 3D 0A CD 3D 13 CD A3 93-A3 3A 34 CD 3D 23 CD 3D =.M=.M#.#:4M=#M=

0E2E: 1DC0 0C CD 3D 13 CD A5 BF 3C-34 CD A8 BE 3C 34 CD A0 .M=.M%?<4M(><4M

0E2E: 1DD0 93 A3 EC 32 A1 38 34 A3-EE 32 A1 3A 34 A3 F0 32 .#12!84#n2! :4#p2

0E2E: 1DE0 E8 C4 E2 BE 34 34 CD 9C-89 CD A0 93 A3 EC 32 A1 hDb>44M..M .#12!

0E2E: 1DF0 30 34 A3 EE 32 A1 32 34-A3 F0 3D E8 A9 E2 CD C8 04#n2!24#p2h)bMH

0E2E: 1E00 39 BF 3E 33 CD A8 8B F7-BF BC 46 CD B2 BB 1A 00 .?>3M(.w?<FM2;..

0E2E: 1E10 CD 3D 03 8B FE CD A8 8B-F7 BF C0 46 CD CA 77 03 M=..~M(.w?@FMJw.

0E2E: 1E20 E9 04 00 87 F7 CD A6 CD-EA BB A8 41 CD 95 BB B2 i...wM&Mj; (AM. ;2

0E2E: 1E70 41 CD EB BB 60 3B B8 20-34 CD 80 93 BB 1C 34 CD AMk; ' ;8 4M.. ; .4M

0E2E: 1E40 80 CD 95 CD EA BB 66 00-CD 3F 37 BB C2 37 CD 95 .M.Mj;f .M?7;B7M. 0E2E: 1E50 BB D2 41 CD 95 BB C4 46-CD EB BB F2 33 CD 96 CD ;RAM. ;DFMk;r3M.M

0E2E: 1E60 3E 31 BB 0A 00 CD 3E 42-BB 14 00 CD 3E 44 CD E6 >1;..M>B; ..M>DMf

0E2E: 1E70 BB D0 46 CD 95 BB 60 3B-B8 20 34 CD 80 93 BB 1C ;PFM.;';8 4M..;.

0E2E: 1E80 34 CD 80 CD 99 CD EA BB-66 00 CD 3F 37 BB C2 37 4M.M.Mj;f.M?7;B70E2E: 1E90 CD 95 BB E8 46 CD 95 BB-22 33 CD 3D 13 BB 16 00 M. ;hFM. ; "3M=. ; ..

0E2E: 1EA0 CD 07 BB 66 33 CD 3D 13-8B D3 CD A3 93 A3 40 34 M.;f3M=..SM#.#@4 0E2E: 1EB0 8B DA BA 04 00 B9 02 00-8B C3 CD 3D 0A CD 3D 13 .Z:..9...CM=.M=.

0E2E: 1EC0 CD A3 93 A3 AA 33 BB D1-CD 3D 0C CD 3D 13 CD A5 M#.#*3.QM=.M=.MZ.

0E2E: 1ED0 BF 42 34 CD AB 8B F7 BF-02 47 CD AA CD A2 93 A3 ?B4M( . w?.GM*M".#

0E2E: 1EE0 EC 32 A1 40 14 A3 EE 32-A1 AA 33 A3 F0 32 E8 B6 12!@4#n2!*3#p2h6 0E2E: 1EF0 E1 BF F2 32 CD A8 E8 36-E2 93 BA 4634 CD 8C CD aPr2Mth6b. :F4M.H 0E2E:1F00 EA BB 2E 00 CD 3F 57 BB-C2 37 CD 95 8B D3 BB 06 j;..M27;B7M..S;.

0E2E:1F10 47 BD 95 BB 46 84 CD 95-BB 26 44 CD 95 BB66 33 GM.;H4M.;&DM.;f3 0E2E: 1F20 CD 99 CD EA BB 24 00 CD-3F 37 8B DA CD 95 BB 1A M.Mj;$.M?7.ZM. ; .

0C2E: 1F30 47 CD 99 CD EA BB 58 33-CD 99 CD EA BB 5C 33 CD GM.Mj;X3M.Mj;\3M

0E2E: 1F40 99 CD EA BB 60 33 CD 99-CD EA BB EE 33 CD 99 CD .Mj; 3M.Mj;n3M.M

0E2E: 1F50 EA BB 83 00 BA BC 37 CD-3D 0F CD 99 A1 A0 33 40 j;..:<7M=.M.! 3@

0E2E: 1F60 A3 A0 33 B8 01 00 E9 15-00 8B 3E 4A 34 8B DF D1 # 38..i...>J4._Q

0E2E: 1F70 E7 Dl E7 81 C7 F4 31 BE-56 47 CD A6 43 93 A3 4A gQg.Gt1>VGM&C.#J

0E2E: 1F80 34 83 3E 4A 34 0D 7E E1-BB AC 46 B8 24 34 CD 8D 4.>J4.~a;,F8$4M.

0E2E: 1F90 75 03 E9 BE 00 BB 02 00-CD 3D 2B 23 DB 75 03 E9 u.i>.;..M=+#[u.i

0E2E: 1FA0 0E 00 CD 3E 23 BB 5A 47-BA 4C 34 CD 8C E9 33 03 ..M>#;ZG:L4M.i3.

0E2E: IFB0 BB 02 00 CD E1 CD E2 10-05 04 05 05 05 05 05 05 ;..MaMb......... 0E2E: 1FC0 05 07 07 07 07 07 07 07-BB F2 33 CD E3 BB F6 33 ........;r3Mc;v3

0E2E: 1FD0 CD E3 BB F8 33 CD E3 BB-FC 33 CD E3 BB 00 34 CD Mc;x3Mc; !3Mc; .4M

0E2E: 1FE0 E3 BB 04 34 CD E3 BB 08-34 CD E3 BB 0C 34 CD E3 c;.4Mc;.4Mc;.4Mc

0E2E: 1FF0 BB 10 34 CD E3 BB 66 33-CD E3 BB 14 34 CD E3 BB ;.4Mc;f3Mc;.4Mc;

0E2E:2000 18 34 CD E3 BB 1C 34 CD-E3 BB 20 34 CD E3 BB EA .4Mc;.4Mc; 4Mc;j

0E2E:2010 33 CD E3 BB 22 33 CD E3-BB A0 46 CD 3D 2F BF A4 3Mc;"3Mc; FM=/?$

0E2E:2020 46 CD BC BF A8 46 CD AC-BB 1A 00 CD 3D 03 8B 1E FM<?(FM,; .. M=...

0E2E:2030 F6 33 CD 9C 89 CD 82 CD-CO 89 BF 08 34 CD A8 BF v3M..M.M@.?.4M(?

0E2E:2040 28 34 BE F2 33 CD CA 74-03 E9 97 02 A1 A0 33 40 (4>r3MJt.i..! 3@

0E2E:2050 A3 A0 33 BB 62 47 BA 24-34 CD 8C BF 50 34 BE F8 # 3;bG:$4M.?P4>x

0E2E:2060 31 CD AA 8B FE CD A8 BF-F8 33 BE FC 31 CD AA 8B 1M*.~M(?x3>|1M*.

0E2E;2070 FE CD A8 BF FC 33 BE 00-32 CD AA 8B FE CD A8 BF ~M(?|3>.2M*.~M(?

0E2E:2080 00 34 BE 04 32 CD AA 8B-FE CD A8 BF 04 34 BE 08 .4>.2M*.~M(7.-4>.

0E2E;2090 32 CD AA 8B FE CD A8 EB-05 12 BF 0C 34 BE 10 32 2M*.~M(h..?.4>.2

0E2E:20A0 CD AA 8B FE CD A8 83 3E-F6 33 01 74 03 E9 09 00 M*.~M(.>v3.t.i..

0E2E:20B0 BE 10 34 CD A0 93 A3 54-34 83 3E F6 33 06 74 03 >.4M .#T4.>v3.t.

0E2E:20C0 E9 09 00 BE 10 34 CD A0-93 A3 56 34 S3 3E F6 33 i..>.4M .#V4.>v3

0E2E:20D0 0C 74 03 E9 08 00 BF 58-34 BE 10 34 CD A6 BB 68 .t.i..?X4>.4M&;h

0E2E: 20E0 47 CD EB 8B 1E F6 33 D1-E3 D1 E3 81 C3 A6 32 CD GMk..v3QcQc.C&2M

0E2E:20F0 95 BE F8 33 CD A0 93 A3-5C 34 E8 6C 0B BB 82 47 .>x3M .#\4hl.;.G

0E2E:2100 CD EB 8B 1E 5C 34 CD 3D-10 B8 26 44 CD 80 BA 03 Mk..\4M=.8&DM.:.

0E2E:2110 00 CD 3D 0C CD 95 BF C4-3F BE FC 33 CD CA BE- 00 .M=.M.?D?>|3MJ;.

0E2E:2120 00 72 01 4B BF 78 40 BE-00 34 CD CA BA 00 00 72 .r.K7x@>.4MJ:..r

0E2E:2130 01 4A 23 D3 BF 8E 47 CD-CA BB 00 00 77 01 4B 23 .J#S?.GMJ;..w.K#

0E2E:2140 DA BF 92 47 BE 04 34 CD-CA BA 00 00 72 01 4A 23 Z?.G>.4MJ:..r.J#

0E2E:2150 D3 BF 96 47 CD CA BB 00-00 77 01 4B 23 DA 23 DB S?.GMJ;..w.K#Z#[

0E2E:2160 75 03 E9 10 00 BF 9A 47-BE F3 33 CD AA BF 5E 34 u.i..?.G>x3M*?^4

0E2E: 2170 CD AS E9 08 00 BF 5E 34-BE F8 33 CD A6 8B 3E F6 M(i..?^4>x3M&.>v

0E2E:2180 33 D1 E7 8B 9D 88 32 CD-82 BF F8 33 CD BC BF FC 3Qg...2M.?x3M<?|

0E2E:2190 33 CD BC BF 0C 34 CD BC-BF 9E 47 CD BC BB 1A 00 3M<?.4M<?.GM<;..

0E2E:21A0 CD 3D 03 BF 2C 34 CD AC-CD A8 8B DF CD 3D 11 B8 M=.?,4M,M(._M=.8

0E2E:21B0 9C 43 CD 80 BA 03 00 CD-3D 0C BA 62 34 CD 8C BF .CM.:..M=.:b4M.?

0E2E-.21C0 56 3B BE 2C 34 CD BA CD-9F BB 22 33 CD 9D 89 CD V;>,4M:M.;"3M..M

0E2E:21D0 3D 13 CD B9 89 BB 16 00-CD 3D 04 CD A3 93 A3 66 =.M9.;..M=.M#.#f

0E2E:21E0 34 8B 1E 66 34 CD 3D 10-B8 A2 47 CD 80 BA 04 00 4..f4M=.8"GM.:..

0E2E:21F0 CD 3D 0C BA CE 33 CD 8C-B8 64 00 F7 2E 66 34 93 M=.:N3M.8d.w.f4.

0E2E:2200 CD 82 BF 08 34 CD B4 BB-1A 00 CD 3D 03 CD A2 93 M.?.4M4;..M=.M".

0E2E:2210 A3 68 34 8B 1E 63 34 CD-3D 10 B8 9C 43 CD 80 BA #h4..h4M=.8.CM.: 0E2E:2220 04 00 CD 3D 0C BA 6A 34-CD 8C BF 0C 32 BE 08 34 ..M=.:j4M.?.2>.4

0E2E:2230 CD A6 BB 82 47 CD ED BB-5E 34 CD 3D 11 B8 26 44 M&:.GMk; 4M=.8&D

0E2E: 2240 CD 80 BA 03 00 CD 3D 0C-CD 95 CD EA BB AA 47 CD M.:..M=.M.Mj;*GM

0E2E:2250 95 BB B8 17 CD EB BB FC-33 CD 3D 11 BA 02 00 CD .;8GMk;!3M=.:..M

0E2C:2260 3D 0C CD 95 BB BE 47 CD-EB BF A2 3F BE 00 34 CD =.M.;>GMk?"?..4M0E2E:2270 B2 BB 1A 00 CD 92 BB BE-45 CD EB BFA2 3F BE 04 2:..M.;>GME 0E2E:2280 34 CD B2 BB 1A 00 CD 92-CD EA BB CA 47 CD 95 E8 4M2;..M.Mj; JGM.h 0E2E: 2290 0D 10 BB D4 47 CD EB BB-C0 33 CD 95 BB E6 47 CD ..;TGMk;@3M.;fGM

0E2E:22A0 EB BB 0C 34 CD 92 CD EA-BB EE 47 CD 95 BB 20 3B k;.4M.Mj;nGM.; ; 0E2E:22B0 CD EB BS 62 34 CD 95 CD-EA BB FC 47 CD 95 BB FO Mk;b4M.Mj; !GM. ;p

0E2E:22C0 3A CD EB BB CE 33 CD 95-CD EA BB FC 47 CD 95 BB :Mk;N3M.Mj; !GM. ;

0E2E: 22D0 FO 3A CD EB BB 6A 34 CD-99 CD EA BB 60 3B CD 99 p:Mk; J4M.MJ; * ;M.

0E2E:22E0 E9 B2 FC CD EA BB A4 43-CD 95 CD EA BB 71 00 BA i2|Mj;$CM.Mj;q.:

0E2E:22F0 BA 43 CD 3D 0F CD 99 BB-C0 43 CD EB BB 08 48 CD :CM=.M.;@CMk;.HM

0E2E:2300 95 BE 10 32 CD A0 93 B9-3C 00 8B D8 99 F7 F9 A3 .>.2M .9<..X.wy#

0E2E:2310 DC 33 93 99 F7 F9 BB DA-CD 82 BF D2 33 CD A8 BB \3..wy.ZM.?R3M(;

0E2E:2320 FA 32 CD EB BB FC 31 CD-92 8B 1E A0 33 CD 82 BE z2Mk;|1M... 3M.>

0E2E:2330 04 32 CD 9C 39 CD B6 8B-D3 BB 1A 00 CD 92 8B DA .2M..M6.S;..M..Z

0E2E:2340 B3 0A 00 F7 EA 93 CD 82-BE 08 32 CD 9C 8A CD B6 8..Wj.M.>.2M..M6

0E2E:2350 BB 1A -00 CD 92 BE 0C 32-BF 02 35 CD B2 BB 1A 00 ;..M.>.2?.5M2;..

0E2E: 2360 CD 92 CD EA BB C0 33 CD-95 BB FE 32 CD EB BE 10 M.Mj;@3M.;~2Mk>.

0E2E:2370 32 BF FA 34 CD B2 BB 1A-00 CD 92 BB 2C 34 CD 92 2?z4M2;..M.;,4M.

0E2E:2330 8B 1E 66 34 CD 94 8B 1E-68 34 CD 98 BB FC 3A CD ..f4M...h4M.;|:M

0E2E:2390 EB BB 1A 48 CD 95 CD EA-8B 1E A0 33 CD 98 CD EA k;.HM.Mj.. 3M.Mj

0E2E:23A0 BB 60 3B CD 99 CD EA 8B-D3 BB 2C 48 CD 95 8B 1E ;';M.Mj.S;,HM...

0E2E:23B0 54 34 CD 94 BB 50 48 CD-95 8B 1E 56 34 CD 94 BB T4M.;PHM...V4M.;

0E2E:23C0 7C 48 CD 95 BB 58 34 CD-96 CD EA 8B DA CD 99 CD |HM.;X4M.Mj.ZM.M

0E2E:23D0 EA BB 60 3B CD 99 CD EA-8B D3 BB FE 43 CD 99 CD j;';M.MJ.S;~CM.M

0E2E:23E0 EA 8B DA CD 99 BB EA 33-BA 01 00 CD 3D 0B 93 BB j.ZM.;j3:..M=..;

0E2E:23F0 18 44 CD 8D 74 03 E9 0B-00 BF DE 33 BE A0 46 CD .DM.t.i..?^3> FM

0E2E:2400 A6 E9 08 00 BF DE 33 BE-B4 40 CD A6 BE 3E 33 CD &i..?^3>4@M&>>3M

0E2E:2410 A0 93 B9 05 00 99 F7 F9-93 CD 82 BF DE 33 CD AC .9...wy.M.?^3M,

0E2E:2420 BF 22 44 CD AC BF E2 33-CD A8 CD E6 8B F7 CD A0 ?"DM,?b3M (Mf.wM

0E2E:2430 D1 E3 D1 E3 8B D3 81 C3-F4 26 CD 91 81 C2 3E 22 QcQc.S.Ct&M..B>"

0E2E:2440 3B DA CD 99 BB C0 43 CD-EB BE E2 33 CD A0 D1 E3 .ZM.;@CMk>b3M Qc

0E2E:2450 D1 E3 8B D3 81 C3 F4 26-93 BB 60 3B CD 80 81 C2 Qc.S.Ct&.;';M..B

0E2E:2460 3E 22 8B CB 8B DA 91 CD-80 CD 95 BF E6 33 BE E2 >".K.Z.M.M.?f3>b

0E2E:2470 33 CD A6 BE E6 33 CD A0-8B FB D1 E7 83 BD 30 32 3M&>f3M . {Qg.=02

0E2E:24S0 00 74 03 E9 07 00 CD EA-BB 60 3B CD 99 BE E6 33 .t.i..Mj;';M.>f3

0E2E:2490 CD A0 8B FB D1 E7 83 BD-30 32 00 75 03 E9 37 00 M .{Qg.=02.u.i7.

0E2E: 24A0 8B D3 BB 02 33 CD EB D1-E2 D1 E2 8B DA 81 C2 54 .S;.3MkQbQb.Z.BT

0E2E: 24B0 28 8B CB 8B DA CD 92 8B-D9 81 C1 04 29 8B D3 8B (.K.ZM..Y.A.).S.

0E2E:24C0 D9 CD 92 8B DA 81 C2 B4-29 8B CB 8B DA CD 92 81 YM..Z.B4).K.ZM..

0E2E:24D0 C1 64 2A 8B D9 CD 92 CD-EA BE E6 33 CD A0 D1 E3 Ad*.YM.Mj>f3M Qc

0E2E:24E0 D1 E3 8B D3 81 C3 84 2E-CD 3D 11 B8 26 44 CD 30 Qc.S.C..M=.8&DM.

0E2E:24F0 8B CA BA 02 00 CD 3D 0C-93 BB 5A 3B CD 80 81 C1 .J:..M=..;Z;M..A

0E2E:2500 34 2F 8B F1 BF 56 3B CD-AA 8B CB BB 1A 00 CD 3D 4/.q?V;M*.K;..M=

0E2E:2510 11 CD 3D 0C 91 CD 80 CD-95 BB FE 32 CD EB BE E6 .M=..M.M. ;~2Mk>f

0E2E: 2520 33 CD A0 D1 E3 D1 E3 8B-D3 81 C3 C4 2E CD 92 8B 3M QcQc.S. CD+M.. 0E2E: 2530 DA 81 C2 74 2C 8B CB 8B-DA CD 92 8B D9 81 C1 24 Z.Bt,.K.ZM..Y.A$

0E2E:2540 2D 8B D38B D9 CD 92 81-C2 D4 20 8B DA CD 96 BB -.S.YM..BT-.ZM.;

0E2E:2550 EA 33 BA 01 00 CD 3D 0B-93 BB 18 44 CD 8D 74 03 j3:..M=..;.DM.t.

0E2E:2560 E9 0B 00 BF E6 33 BE 2C-44 CD A6 E9 08 00 BF E6 i.. ?f3>,DM&i..?f 0Ε2E: 2570 33 BE 30 44 CD A6 BB C0 -43 CD EB BE E6 33 CD A0 3> 0DM&;@CMK>f3M 0E2E: 2580 D1 B3 D1 E3 8B D3 81 C3-F4 26 93 BB 60 3B CD 80 QcQc.S.Ct&.; ';M. 0E2E : 2590 81 C2 ZE 22 8B CB 8B DA-91 CD 80 CD 95 BE E6 33 .B> ".K. Z.M.M.>+3 0E2E: 25A0 CD A0 8B FB D1 E7 83 BD-30 32 00 74 03 E9 07 00 M .{Qg.=02.t.i.. 0E2E: 25B0 CD EA BB 60 3B CD 99 BE-E6 33 CD A0 8B FB D1 E 7 Mj;';M.>f3M . {Qg 0E2E: 25B0 83 BD 30 32 00 75 03 E9-37 00 8B D3 BB 02 33 CD .=02. u.i7..8;.3M 0E2E: 23D0 EB D1 F 2 D1 E2 8B DA 81-C2 54 28 8B CB 8B DA CD kQbQb.Z.BT( .K .ZM 0E2E:25E0 92 8B D9 81 C1 04 29 8B-D3 8B D9 CD 92 8B DA 81 ..Y.A.).S.YM..Z. 0E2E:25F0 C2 B4 29 8B CB 8B DA CD-9281 C1 64 2A 8B D9 CD B4) .K. ZM.. Ad*. YM

0E2E:2600 92 CD EA BE E6 33 CD A0-D1 E3 D1 E3 8B D3 81 C3 .Mj>f3M QcQc.S.C

0E2E:2610 84 2E CD 3D 11 B8 26 44 -CD 80 8B CA BA 02 00 CD ..M=.8&DM..J:..M

0E2E:2620 3D 0C 93 BB 5A 3B CD 80-81 Cl 34 2F 8B F1 BF 56 =.. ;Z;M.. A4/. q?V

0E2E:2630 3B CD AA BB CB BB 1A 00-CD 3 D 11 CD 3D 0C 91 CD ;M*.K; ..M=.M=..M

0E2E:2640 80 CD 95 BB FE 32 CD EB -BE E6 33 CD AO D1 E3 D1 .M. ;~2Mk>f3M QcQ

0E2E:2650 E3 8B D3 81 C3 C4 2B CD -92 8B DA 81 C2 74 2C 8B c.S.CD+M..Z.Bt,.

0E2E: 2660 CB 8B DA CD 92 8B D9 81-C1 24 2D 8B D3 8B D9 CD K. ZM..Y.A$-.S.YM

0E2E: 2670 92 81 C2 D4 2D 8B DA CD -96 BF E6 33 BE 34 44 CD .. BT-.ZM.?+3>4DM

0E2E: 2680 A6 BB C0 43 CD EB BE E6-33 CD A0 D1 E3 D1 E3 8B &;@CMk>f3M QcQc.

0E2E:2690 D3 81 C3 F4 26 93 BB 60-3B CD 80 81 C2 3E 22 8B D.Ct&. ; ;M.. B>".

0E2E: 26A0 CB 8B DA 91 CD 80 CD 95-BE E6 33 CD AO 8B FB D1 K. Z.M.M. >f3M .{Q

0E2E: 26B0 E7 83 BD 30 32 00 74 03-E9 07 00 CD EA BB 60 3B g.=02. t. i ..Mj; ;

0E2E: 26C0 CD 99 BE E6 33 CD A0 8B-FB D1 E7 83 BD 30 32 00 M.>f3M .{Qg.=02.

0E2E:26D0 75 03 E9 37 00 8B D3 BB- 02 33 CD EB D1 E2 D1 E2 u.i7..S; .3MkQbQb

0E2E: 26E0 8B DA 81 C2 54 28 8B CB-8B DA CD 92 8B D9 81 C1 .Z.BT(.K.ZM..Y.A

0E2E:26F0 04 29 8B D3 8B D9 CD 92- 8B DA 81 C2 B4 29 eB CB .) .S.YM..Z.B4).K

0E2E: 2700 8B DA CD 92 81 C1 64 2A-8B D9 CD 92 CD EA BE E6 .ZM..Ad*.YM.Mj>-f

0E2E: 2710 33 CD A0 D1 E3 D1 E3 8B-D3 81 C3 84 2E CD 3D 11 3M QcQc.S. C..M=.

0E2E: 2720 B8 26 44 CD 80 8B CA BA-02 00 CD 3D OC 93 BB 5A 8&DM.. J: .. M=.. ;Z

0E2E: 2730 3B CD 80 81 C1 34 2F 8B-F1 BF 56 3B CD AA 8B CB ;M.. A4/.q7V;M*.K

0E2E: 2740 BB 1A 00 CD 3D 11 CD 3D-0C 91 CD 80 CD 95 BB FE ; ..M=.M=..MIM. ;~

0E2E: 2750 32 CD EB BE E6 33 CD A0-D1 E3 D1 E3 8B D3 81 C3 2Mk>f3M QcQc.S.C

0E2E: 2760 C4 2B CD 92 8B DA 81 C2-74 2C 8B CB 8B DA CD 92 D+M..Z.Bt,.K.ZM.

0E2E: 2770 8B D9 81 C1 24 2D 8B D3-8B D9 CD 92 81 C2 D4 2D .Y.A$-.S.YM..BT- 0E2E: 2780 8B DA CD 96 CD EA BB 60-3B CD 99 CD EA CD 99 CD .ZM.Mj; ;M.MjM.M

0E2E: 2790 EA BB A8 48 CD 99 BB 5A-47 B8 4C 34 CD 8D 74 03 j; (HM.';ZG8L4M.t.

0E2E: 27A0 E9 01 00 C3 E9 86 F5 BB-EC 48 BA 54 33 CD SC E8 i ..Ci .u;1H:T3M.h

0E2E: 27B0 FB 04 BB 06 49 BA 53 33-CD 8C BB 8A 49 BA 5C 33 C. ; . I:X3M. ; . I:\3

0E2E: 27C0 CD 8C BB 0E 4A BA 60 33-CD 8C CD EA BB 58 33 CD M.;.J:'3M.Mj;X3M

0E2E: 27D0 99 CD EA BB 5C 33 CD 99-CD EA BB 60 33 CD 99 CD .Mj;\3M.Mj; '3M.M

0E2E: 27E0 EA BB 83 00 BA BC 37 CD-3D OF CD 99 CD EA BB 94 j; .. :<7M=.M.Mj;.

0E2E: 27F0 4A CD 99 B8 01 00 E9 A9- 00 8B 36 1C 33 D1 E6 D1 JM.8..i) ..6.3QfQ

0E2E: 2800 E6 81 C6 54 28 CD D2 75-03 E9 92 00 BB 9C 4A CD f.FT(MRu.i..;.JM

0E2E: 2810 EB 8B 1E 1C 33 D1 E3 D1-E3 81 C3 F4 26 CD 95 B8 k...3QcQc.Ct&M.S

0E2E: 2820 01 00 E926 00 8B 3E 6E-34 8B DF D1 E7 D1 E7 81 ..i&..>n4._QgQg.

0E2E:2830 C7 F4 31 B8 2C 00 F7 EB -96 03 36 1C 33 D1 E6 D1 Gt18,.wk..6.3QfQ

0E2E: 2840 E6 81 C6 A4 27 CD A6 A1-6E 34 40 A3 6E 34 83 3E f.F$'M&!n4G#n4.>

0E2E: 2850 6E 34 0D 7E DO BE 1C 32-CD A0 93 A3 DC 33 BF D2 n4.~P>.2M .#\3?R

0E2E: 2860 33 BE 20 32 CD A6 BB B2 -4A CD EB BB F8 31 CD 92 3> 2M&;2JMk;x1M.

0E2E: 2870 BB FC 31 CD 92 BB 00 32-CD 92 BB 04 32 CD 92 8B ;;1M.;.2M.;.2M..

0E2E: 2880 1E DC 33 CD 94 BB D2 33 -CD 92 BB 0C 32 CD 92 BB .\3M.;R3M.;.2M.;

0E2E: 2890 10 32 CD 92 BB 14 32 CD-92 BB 18 32 CD 96 A1 1C .2M.;.2M.;.2M..'.

0E2E: 28A0 33 40 A3 1C 33 83 3E 1C-33 14 7F 03 E9 4A FF CD 3@#.3.>.3...iJ.M

0E2E: 28B0 EA BB 60 3B CD 99 CD EA -BB 24 4B CD 99 B8 15 00 j; ;M.Mj;$K.M.8..

0E2E: 28C0 E9 A9 00 8B 36 1C 33 D1-E6 D1 E6 81 C6 54 28 CD i)..6.3QfQf.FT(M

0E2E: 28D0 D2 75 03 E9 92 00 BB 9C-4A CD EB 8B 1E 1C 33 D1 Ru.i..;.JMk...3Q

0E2E: 28E0 E3 D1 E3 81 C3 F4 26 CD-95 B8 01 00 E9 26 00 8B cQc.Ct&M.8..i &..

0E2E: 28F0 3E 6E 34 8B DF D1 E7 D1-E7 81 C7 F4 31 B8 2C 00 >n4._QgQq.Gt18,.

0E2E: 2900 F7 EB 96 03 36 1C 33 D1-E6 D1 E6 81 C6 A4 27 CD wk...6.3QfQf.F$'M

0E2E: 2910 A6 A1 6E 34 40 A3 6E 34-83 3E 6E 34 0D 7E D0 BE &' n4@#n4.>n4.~P>

0E2E: 2920 1C 32 CD A0 93 A3 DC 33-BF D2 33 BE 20 32 CD A6 .2M . #\3?R3> 2M&

0E2E: 2930 BB B2 4A CD EB BB F8 31-CD 92 BB FC 31 CD 92 BB ;2JMk;x1M.;:1M.; 0E2E: 2940 00 32 CD 92 BB 04 32 CD-92 8B 1E DC 33 CD 94 BB .2M.;.2M...\3M.;

0E2E: 2950 D2 33 CD 92 BB 0C 32 CD-92 BB 10 32 CD 92 BB 14 R3M.;.2M.;.2M.;.

0E2E: 2960 32 CD 92 BB 18 32 CD 96-A1 1C 33 40 A3 1C 33 83 2M.;.2M.!.3@#.3.

0E2E: 2970 3E 1C 33 28 7F 03 E9 4A-FF CD EA BB 60 3B CD 99 >.3(..iJ.Mj;';M.

0E2E: 2980 BB 9C 4A CD EB BB 2E 4B-CD 95 B8 01 00 E9 1E 00 ;.JMk;.KM.8..i..

0E2E: 2990 8B 3E 6E 34 8B DF D1 E7-D1 E7 81 C7 F4 31 B8 B0 .>n4._QgQg.Gt180

0E2E: 29A0 00 F7 EB 96 81 C6 48 28-CD A6 A1 6E 34 40 A3 6E .wk..FH(M&!n4@#n

0E2E: 29B0 34 83 3E 6E 34 0D 7E DB-BE 1C 32 CD A0 93 A3 DC 4.>n4.~X>.2M .#\

0E2E: 29C0 33 BF D2 33 BE 20 32 CD-A6 BB B2 4A CD EB BB F8 3?R3> 2M&;2JMk;x

0E2E: 29D0 31 CD 92 BB FC 31 CD 92-BB 00 32 CD 92 BB 04 32 1M.; !1M.;.2M.;.2

0E2E: 29E0 CD 92 8B 1E DC 33 CD 94-BB D2 33 CD 92 BB OC 32 M...\3M.;R3M.;.2

0E2E: 29F0 CD 92 BB 10 32 CD 92 BB-14 32 CD 92 BB 18 32 CD M.;.2M.;.2M.;.2M

0E2E: 2A00 96 CD EA BB 60 3B CD 99-BB 9C 4A CD EB BB 3A 4B .Mj;';M.;.JMk;:K

0E2E: 2A10 CD 95 B8 01 00 E9 1E 00-8B 3E 6E 34 8B DF D1 E7 M.8..i...>n4._Qg

0E2E: 2A20 D1 E7 81 C7 F4 31 B8 B0-00 F7 EB 96 81 C6 4C 28 Qg.Gt180.wk..FL(

0E2E: 2A30 CD A6 A1 6E 34 40 A3 6E-34 83 3E 6E 34 0D 7E D8 M& !n4@#n4.>n4.~X

0E2E: 2A40 BE 1C 32 CD A0 93 A3 DC-33 BF D2 33 BE 20 32 CD >.2M .#\3?R3> 2M

0E2E: 2A50 A6 BB B2 4A CD EB BB F8-31 CD 92 BB FC 31 CD 92 &;2JMk;x1M.; !1M.

0E2E: 2A60 BB 00 32 CD 92 BB 04 32-CD 92 8B 1E DC 33 CD 94 ;.2M.;.2M...\3M.

0E2E: 2A70 BB D2 33 CD 92 BB 0C 32-CD 92 BB 10 32 CD 92 BB ;R3M.;.2M.;.2M.;;

0E2E: 2A80 14 32 CD 92 BB 18 32 CD-96 CD EA BB 60 3B CD 99 .2M.;.2M.Mj;';M.

0E2E: 2A90 BB 9C 4A CD EB BB 48 4B-CD 95 B8 01 00 E9 1E 00 ;.JMk;HKM.8..i..

0E2E: 2AA0 8B 3E 6E 34 8B DF D1 E7-D1 E7 81 C7 F4 31 B8 B0 .>n4._QgQg.Gtl80

0E2E:2AB0 00 F7 EB 96 81 C6 50 28-CD A6 A1 6E 34 40 A3 6E .wk..FP(M& !n4@#n

0E2E: 2AC0 34 83 3E 6E 34 0D 7E D8-BE 1C 32 CD A0 93 A3 DC 4.>n4.~X>.2M .#\

0E2E: 2AD0 33 BF D2 3T BE 20 32 CD-A6 BB B2 4A CD EB BB F8 3?R3> 2M&;2JMk;x

0E2E: 2AE0 31 CD 92 BB FC 31 CD 92-BB 00 32 CD 92 BB 04 32 1M.; !1M.;.2M.;.2

0E2E: 2AF0 CD 92 8B 1E DC 33 CD 94-BB D2 33 CD 92 BB 0C 32 M...\3M.;R3M.;.22

0E2E: 2B00 CD 92 BB 10 32 CD 92 BB-14 32 CD 92 BB 18 32 CD M.;.2M.;.2M.;.2M

0E2E: 2B10 96 C3 33 DB CD 3E 21 8B-CB BB 01 00 BA 5C 4B CD .C3[M>!.K;..:\KM

0E2E: 2B20 3E 1F BB 01 00 E9 33 01-BB 01 00 CD 3D 2B 23 DB >.8..i3.;..M=+#[

0E2E: 2B30 75 03 E9 01 00 C3 CD 3E-31 BB 08 00 CD 3E 42 BB u.i..CM>1;..M>B;

0E2E: 2B40 0E 00 CD 3E 44 CD E6 BB-6C 4B CD 99 BB 01 00 CD ..M>DMf;1KM.;..M

0E2E: 2B50 E1 CD E2 02 07 07 8B 1E-1C 33 D1 E3 D1 E3 8B D3 aMb......3QcQc.S

0E2E: 2B60 81 C3 F4 26 CD E3 81 C2-3E 22 8B DA CD E3 B8 01 .Ct&Mc.B>".ZMc8.

0E2E: 2B70 00 E9 22 00 BB 01 00 CD-E1 CD E2 01 05 B8 2C 00 .i".;..MaMb..8,.

0E2E: 2B80 F7 2E 48 33 03 06 1C 33-D1 E0 D1 E0 05 A4 27 93 w.H3...3Q'Q'. $'.

0E2E: 2B90 CD E3 A1 48 33 40 A3 48-33 83 3E 48 33 09 7E D4 Mc!H3@#H3.>H3.~T

0E2E: 2BA0 BB 01 00 CD E1 CD E2 01-04 8B 1E 1C 33 D1 E3 81 ;..MaMb.....3Qc.

0E2E: 2BB0 C3 30 32 CD E3 3B 3E 1C-33 D1 E7 03 BD 30 32 00 C02Mc. >.3Qg.=02.

0E2E: 2BC0 75 03 E9 92 00 B8 01 00-E9 2C 00 B8 2C 00 F7 2E u.i..8..i,.8,.w.

0E2E: 2BD0 48 33 97 03 3E 1C 33 D1-E7 D1 E7 81 C7 A4 27 8B H3..>.3QgQg.G$'.

0E2E: 2BE0 36 1C 33 D1 E6 8B 9C 30-32 CD 82 8B F7 CD B6 8B 6.3Qf..02M..wM6.

0E2E: 2BF0 FE CD A8 A1 48 33 40 A3-48 33 83 3E 48 33 09 7E ~M(!H3@#H3.>H3.~

0E2E: 2C00 CA 8B 1E 1C 33 D1 E7 D1-E7 8B DF 81 C7 34 2E 8B J.>.3QgQg._.G...

0E2E: 2C10 D3 81 C3 14 2B 8B F3 8B-CF BF 8A 4B CD B2 BB 1A S.C.+.s.0?.KM2;.

0E2E: 2C20 00 CD 3D 03 8B DF 8B F9-8B C6 CD A8 8B CA 81 C2 .M=.._.v.FM(.J.B

0F2E: 2C30 34 2F 8B FA 81 C1 84 2E-8B F1 8B FB CD BA 96 CD 4/.z.A...q. {M:.M

0F2E: 2C40 C6 8B FA CD A8 8B F2 BF-A2 3F CD CA 72 03 E9 06 F.zM!.r?"?MJr.i.

0F2E: 2C50 00 CD AA 8B FA CD A8 A1-1C 33 40 A3 1C 33 83 3E .M=.zM(!.3@#.3.

0F2E: 2C60 1C 33 9B 7F 03 E9 C0 FE-C3 8B 1E 5C 34 CD 82 BF .3*..1 @' C..\4M. ?

0F2E: 2C70 A2 3F CD B4 BB 1A 00 CD-3D 03 BF 8E 4B CD AC BF "?M4;..Mz.?.KM.?

0F2E: 2C80 70 34 CD A88B F7 CD A0-CD 3D 05 BA 74 34 CD 8C p4M(.0M M=.:t±M.

0F2E:2C90 B9 0A 00 A1 5C 34 99 F7-F9 83 FA 05 74 03 E9 0B 9. . !\4.wv.z.t.i. 0E2E: 2CA0 00 BB 92 4B B8 74 34 CD-80 92 CD 8C C3 BB 01 00 .;.K8t4M..M.C;..

0C2E: 2CB0 CD 3E 22 8B D3 33 DB CD-3E 21 8B C3 8B DA 91 BA M>".S3[M>!.C.Z.:

0E2C: 2CC0 98 4B CD 3E 1F BB 01 00 -CD E1 CD E2 07 07 07 07 .KM>.;..MaMb....

0E2E: 2CD0 07 07 07 07 BB 78 34 CD-E3 BB 7C 34 CD E3 BB 80 ....;x4Mc;!4Mc;.

0E2E: 2CE0 34 CD E3 BB 84 34 CD E3-BB 88 34 CD E3 BB 8C 34 4Mc;.4Mc;.4Mc;.4

0E2E: 2CF0 CD E3 BB 90 34 CD E3 BB-01 00 CD 3E 22 BB 78 34 Mc;.4Mc;..M>";x4

0E2E: 2D00 BA 01 00 8B CB CD 3D 0C-93 BB 00 3B CD 8D 74 03 :...KM=..;';M.t.

0E2E: 2D10 E9 14 00 8B D9 CD E4 4B-8B C3 8B D9 92 CD 3D 0B i...YMdK.C.Ϋ.M=.

0E2E: 2D20 8B D1 CD 8C E9 D6 FF BB-54 33 BA 01 00 8B CB CD .QM.iV.;T3:...KM

0E2E: 2D30 3D 0C 93 BB 60 3B CD 8D-74 03 E9 14 00 8B D9 CD =..;';M.t.i...YM

0E2E: 2D40 E4 4B 8B C3 8B D9 92 CD-3D 0B 8B D1 CD 8C E9 D6 dK.C.Y.M=..QM.iV

0E2E: 2D50 FF BB 78 34 8B D3 CD E4-CD 82 BF A8 4B CD BC BE .;x4.SMdM.?(KM<>

0E2E: 2D60 8E 4B CD C6 BF 94 34 CD-A8 CD EA 8B F7 CD A0 CD .KMF?.4M(Mj.wM M

0E2E: 2D70 3F 37 BB C2 37 CD 95 8B-DA CD 99 BB 54 33 8B D3 ?7;B7M..ZM.;T3.S

0E2E: 2D80 CD E4 CD 82 BF A8 48 CD-BC BE 8E 4B CD C6 BF 94 MdM-7(KM<>.KMF?.

0E2E: 2D90 34 CD A8 CD EA 8B F7 CD-A0 CD 3F 37 BB C2 37 CD 4M(Mj.wM M?7;B7M

0E2E: 2DA0 95 8B DA CD 99 CD EA BB-30 00 CD 3F 37 BB C2 37 ..ZM.Mj;0.M?7;B7

0E2E: 2DB0 CD 95 BB AC 4B CD 99 CD-EA BB 30 00 CD 3F 37 BB M.;,KM.Mj;0.M?7;

0E2E: 2DC0 C2 37 CD 95 BB D2 4B CD-99 CD EA BB 60 3B CD 99 B7M.;RKM.Mj;';M.

0E2E: 2DD0 CD EA BB F8 4B CD 95 CD-3D 23 CD 95 CD EA BB 6B Mj;xKM.M=#M.Mj;k

0E2E: 2DE0 00 CD 3F 37 BB C2 37 CD-95 BB 02 4C CD 95 BB 88 .M?7;B7M.;.LM.;.

0E2E: 2DF0 34 CD 95 BB EE 38 CD 95-BB 8C 34 CD 99 CD EA BB 4M.;n8M.;.4M.Mj;

0E2E: 2E00 10 4C CD 95 CD EA BB 6B-00 CD 3F 37 BB C2 37 CD .LM.Mj;k.M?7.;B7M

0E2E: 2E10 95 BB 24 4C CD 99 CD EA-BB 60 3B CD 99 C3 CD 3D .;$LM.Mj;';M.CM=

0E2E: 2E20 06 BA 12 33 CD 8C 92 BB-C2 37 CD 8D 74 F0 C3 C7 .s.3M..;B7M.tpCG

0E2E: 2E30 06 A0 33 00 00 33 DB CD-3E 21 8B CB BB 02 00 BA . 3..3CM>!.K;..:

0E2E: 2E40 26 3E CD 3E 1F C7 06 92-33 00 00 BB 02 00 CD 3D &>M>.G..3..;..M=

0E2E: 2E50 2B 23 DB 75 03 E9 04 00-CD 3E 23 C3 83 3E 92 33 +#[u.i..M>#C.>.3

0E2E: 2E60 2C 7F 03 E9 04 00 CD 3E-23 C3 A1 A0 33 40 A3 A0 ,..i..M>#C! 3@#

0E2E: 2070 33 BB 01 00 CD 3E 42 BB-46 00 CD 3E 44 CD E6 8B 3;..M>B;F.M>DMf.

0E2E: 2E80 1E A0 33 CD 98 BB 02 00-CD E1 CD E2 08 05 07 05 . 3M.;..MaMb....

0E2E: 2E90 05 05 07 05 07 BB 26 33-CD E3 BB 2A 33 CD E3 BB .....;&3Mc;*3Mc;

0E2E: 2EA0 2E 33 CD E3 BB 32 33 CD-E3 BB 36 33 CD E3 BB 3A .3Mc;23Mc;63Mc;:

0E2E: 2EB0 33 CD E3 BB 3E 33 CD E3-BB 42 33 CD E3 BB 3A 33 3Mc;>3Mc;B3Mc;:3

0E2E: 2EC0 BA 01 00 B9 02 00 CD 3D-0A CD 3D 13 8B 1E 86 33 :..9..M=.M=....3

0E2E: 2ED0 CD 9D 39 CD 81 CD D1 89-74 03 E9 6E FF A1 92 33 M..M.MQ.t.in. !.3

0E2E: 2EE0 A3 98 34 B8 01 00 E9 1A-00 8B 36 1C 33 D1 E6 D1 #.48..i...6.3QfQ

0E2E: 2EF0 E6 81 C6 F6 1B BF 26 33-CD CA 75 03 E9 4C FF A1 f.Fv.?&3MJu.iL. !

0E2E: 2F00 1C 33 40 A3 1C 33 A1 93-34 3B 06 1C 33 7D DA A1 .3@#.3!.4;..3}Z!

0E2E: 2F10 92 33 40 A3 92 33 8B 3E-92 33 D1 E7 D1 E7 8B DF .3@#.3.>.3QgQg._ 0E2E: 2F20 81 C7 F6 1B BE 26 33 CD-A6 CD E6 81 C3 F6 1B CD .Gv.>&3M&Mf.Cv.M 0E2E: 2F30 96 E9 17 FF CD 3E 31 BB-07 00 CD 3E 42 BB 14 00 .i..M>1;..M>B;.. 0E2E: 2F40 CD 3E 44 CD E6 BB F4 33-CD 99 A1 92 33 48 A3 9A M>DMf;t8M. !.3H#. 0E2E: 2F50 34 B8 01 00 E9 6C 00 8B-36 1C 33 D1 E6 D1 E6 81 48,.il..6.3QfQf. 0E2E: 2F60 C6 FA 1B BF 9C 34 CD A6-A1 1C 33 E9 30 00 8B 36 Fz.?.4M&!.310..6 0E2E: 2F60 48 33 D1 E6 D1 E6 81 C6-F6 1B BF 9C 34 CD CA 77 H3QfQf .Fv.?.4MJw 0E2E: 2F80 03 E9 2A 00 8B 3E 48 33-D1 E7 D1 E7 8B DF 81 C7 . i*..>H3QgQg._.G0E2E: 2F90 FA 1B 81 C3 F6 1B 8B F3-CD A6 A1 48 33 48 A3 48 z..Cv..sM&!H3H#H0E2E: 2FA0 33 83 3E 4833 01 7D C6-C7 06 48 33 00 00 8B 3E 3.>H3.}FG.H3...>0E2E: 2FB0 48 33 D1 E7 D1 E7 81 C7-FA 1B BE 9C 34 CD A6 A1 H3QgQg.Gz.>.4M& !0E2E: 2FC0 1C 33 40 A3 1C 33 A1 9A-34 3B 06 1C 33 7D 38 C3 .3@#.3!.4;..3}.C0E2E: 2FD0 C7 06 A0 34 00 00 B8 01-00 E9 15 00 8B 3E 1C 33 G. 4..8..i... .30E2E: 2FE0 8B DF D1 E7 D1 E7 81 C7-FA 1B BE 3E 4C CD A6 43 ._QgQg.Gv. CM&C0E2E: 2FF0 93 A3 1C 3381 3E 1C 36-C800 7E E0 33 DB CD 3E .#.3.>.3H.' 3CM> 0E2E: 3000 21 8B CB BB 01 00 BA 42-4C CD 3E 1F BB 01 00 CD !.K;..:BLM>.;..M 0E2E:3010 3D 2B 23 DB 75 03 E9 04 -00 CD 3E 23 C3 BB 01 00 =+#Cu.i ..M>#C; ..

0E2E: 3020 CD E1 CD E2 0C 05 05 05 -05 05 05 05 05 05 05 07 MaMb............

0E2E 3030 07 BB 26 33 CD E3 BB A2 -34 CD E3 CD E3 CD E3 CD . ;&3Mc; "4McMcMcM

0E2E : 3040 E3 CD E3 CD E3 CD E3 CD -E3 CD E3 BB 66 33 CD E3 cMcMcMcMcMc;f3Mc

0E2E: 3050 BB A6 34 CD E3 A1 A0 34 -A3 AA 34 B8 01 00 E9 17 ;&4Mc! 4#*48..i.

0E2E: 3060 00 8B 36 1C 33 D1 E6 D1-E6 81 C6 F6 1B BF 26 33 ..6.3QfQf.Fv.?&3

0E2E: 3070 CD CA 74 98 A1 1C 33 40 -A3 1C 33 A1 AA 34 3B 06 MJt. ! .3@#.3! *4;.

0E2E: 3080 1C 33 7D DD A1 A0 34 40-A3 A0 34 8B 3E A0 34 D1 .3}]! 4@# 4. > 4Q

0E2E: 3090 E7 D1 E7 81 C7 F6 1B BE-26 33 CD A6 8B 1E AO 34 gQg.Gv. >&3M&.. 4

0E2E: 30A0 D1 E3 D1 E3 81 C3 D2 18- 8B D3 BB 66 33 CD 8C E9 QcQc.CR..S;f3M.i

0E2E: 30B0 5A FF CD 3E 31 BB 07 00 -CD 3E 42 BB 0A 00 CD 3E Z.M>1;..M>B; ..M>

0E2E: 30C0 44 BB 52 4C CD E0 00 CD- -E2 01 07 BB AC 34 CD E3 D;RLM' .Mb..; , 4Mc

0C2E: 30D0 BB AC -34 CD 3D 13 CD A3 -93 A3 86 33 83 3E 86 33 ;,4M=.M#.#.3. >.3

0E2E: 30E0 01 BB 00 00 7D 01 4B 83 -3E 86 33 0C BA 00 00 7E .;..}.K.>.3.:..~

0E2E: 30F0 01 4A 0B D3 03 D2 75 BA -B8 09 00 8B D8 F7 2E 86 . J.S#Ru:8...Xw..

0E2E: 3100 33 05 F8 FF 92 8B CB BB -74 4C CD 3D 0A BA A6 33 3.x... K; tLM=. :&3

0E2E: 3110 CD 8C BB E4 4C B8 54 33 -CD 80 93 8B D3 BB A6 33 M.;dL8T3M...S;&3

0E2E: 3120 CD 80 CD 8C C3 BB 52 41 -B8 8E 33 CD 3D 74 03 E9 M.M.C;RA8.3M.t.i

0E2E: 3130 0E 00 BB FA 4C CD E0 02-BB B0 34 CD 85 E9 14 00 ..;zLM .;04M.i..

0E2E: 3140 8B 1E 96 33 D1 E3 D1 E3 -81 C3 F6 1B CD 3D 11 BA ...3QcQc.Cv.M=.:

0E2E: 3150 B0 34 CD SC BE 98 33 CD -A0 93 A3 B4 34 B8 01 00 04M.>.3M .#448..

0E2E: 3160 E9 23 00 BB B0 34 CD 3D-13 8B 36 48 33 D1 E6 D1 i#.;04M=..6H3QfQ

0E2E: 3170 E6 81 C6 42 0C CD 9D 89-CD 9E CD D1 89 75 03 E9 f.FB.M..M.MQ.u.i

0E2E: 3180 1D 00 A1 48 33 40 A3 48-33 A1 B4 34 3B 06 48 33 ..!H3@#H3!44;.H3

0E2E: 3190 7D D1 CD E6 BB 18 4D CD-99 E8 82 FC E9 36 FF 8B }QMf ; .MM.h. |i...

0E2E: 31A0 1E 48 33 CD 82 BF 9C 33-CD A8 BB B0 34 CD 3D 13 .H3M.?.3M(;04M=.

0E2E: 31B0 CD A5 BF 26 33 CD A8 C3-CD 3E 31 BB 08 00 CD 3E M%?&3M(CM>1;..M>

0E2E: 31C0 42 BB 01 00 CD 3E 44 BB -3A 33 BA 66 33 CD 8C BB B; ..M>D; :3:f3M.;

0E2E: 31D0 66 33 BA 04 00 B9 02 00-8B C3 CD 3D 0A CD 3D 13 f3:..9...CM=.M=.

0E2E: 31E0 CD A3 93 A3 AA 33 BA 07-00 CD 3D 0A CD 3D 13 BF M#.#*3: ..M=.M=.?

0E2E: 31F0 B4 46 CD AD CD A5 BF 42 -34 CD A8 BE 42 34 CD A0 4FM-M%?B4M ( >B4M

0E2E: 3200 93 A3 EC 32 A1 86 33 A3 -EE 32 A1 AA 33 A3 F0 32 .#12!.3#n2!*3#p2

0E2E: 3210 E8 94 CE BF B6 34 CD A8 -BF F6 32 BE B6 34 CD A6 h.N?64M(?v2>64M&

0E2E: 3220 E8 3E CF 93 BA AC 33 CD -8C BF 4C 35 BE B6 34 CD h>0.: ,3M.?L5>64M 0E2E: 3230 B2 BB 1A 00 CD 3D 03 8B -DE CD BC 8B F3 CD C6 BF 2;..M=..^M<.sMF?

0E2E: 3240 54 35 CD AC 8B FB CD A8 -BF 4A 4D BE B6 34 CD AA T5M,. {M(?JM>64M*

0E2E: 3250 CD A2 93 A3 88 33 33 3E -88 33 00 7E 03 E9 09 00 M".#.3.>.3.~.i..

0E2E: 7260 A1 88 33 05 07 00 A3 88-33 C3 BB C0 33 BA 02 00 !.3. ..#.3C;@3:..

0E2E: 7270 8B CB CD 3D 0C CD 3D 13 -8B D9 CD 3D 0B CD 9D 89 .KM=.M=..YM=.M..

0ECE: 1280 CD 3D 13 BF 4E 4D CD BD -CD B1 89 CD A5 BF D2 33 M=. ?NMM=M1. M%?R3

0E2E: 3290 CD A8 BF D2 33 BE 10 32 -CD AA 8B FE CD A8 C3 BF M(?R3>.2M*.~M(C?

0E211 : 32A0 D2 33 BE 08 34 CD A6 8B -F7 BF 8A 4B CD B2 BB 1A R3>.4M&. w?.KM2; .

0E2E: 32B0 00 CD 3D 03 8B D6 CD A2-93 A3 DC 3P 8B DA B8 3C .M=..VM".#\3.Z8<

0E2E: 32C0 00 F7 2E DC 33 93 CD 82-96 CD C6 8D FE CD A8 8B .w.\3.M..MF.~M(.0E2L: 32D0 1E DC 33 CD 3D 10 B8 26 -44 CD 80 BA 02 00 CD 3D .\3M=.8&DM.:..M=0E2E : 32E0 0C 93 BB 5A 3B CD 80 BF-56 3B DE D2 33 CD AA 8B ..;Z;M.?V;>R3M*.0E2E: 32F0 CB BB 1A 00 CD 3D 11 CD-3D 0C 91 CD 80 BA C0 33 K; .. M=.M=..M.:@3 0E2E: 3300 CD 8C C3 CD 3E 02 F3 A5-8E DA 8B 2E 16 0C 8B C5 M.CM>.s%.Z.. ..E0E2E: 3310 2B C2 3D 00 10 72 03 B8-00 10 5E 5F 8B D5 2B D0 +B=..r.8..^_.U+f 0E2E:3320 81 04 D3 E0 8E D2 8B E0-57 56 2D 01 02 50 16 07 1.B' .R. WV . . P.. 0E2E:3330 8B F0 8B F8 40 91 FD F3-A4 PC 16 1F 58 B9 76 4D .p.x@.}s$|..X9pM 0E2E:3340 FF 2E 14 0C B0 04 BF B0-06 A2 20 00 5F 5E 89 26 ....0.?0." ._^.& 0E2E:3330 1E 00 56 57 CB 5F 5E 5B-56 57 FF 36 00 00 FF 37 . .VWK_^[vW.6...7 0E2E: 3360 CD 00 00 00 00 00 00 00-00 00 00 00 00 00 00 00 K...............

0E2E: 3370 18 00 14 35 30 30 30 33-30 33 30 36 30 38 31 31 ...5000303060811

0E2E:3380 31 33 31 36 31 39 32 31-32 34 32 36 00 00 00 7F 131619212426....

0E2E:3390 18 00 34 35 30 30 30 33-30 33 30 36 30 33 31 31 ..45000303060811

0E2E:33A0 31 33 31 36 31 39 32 31-32 33 32 36 00 00 60 83 131619212326..'.

0E2E:33B0 00 00 10 84 00 00 00 81-3F 00 5C 35 46 52 49 44 ........?.\5FRID

0E2E:33C0 41 59 20 20 20 53 41 54-55 52 44 41 59 20 53 55 AY SATURDAY SU

0E2E: 33D0 4E 44 41 59 20 20 20 4D-4F 4E 44 41 59 20 20 20 NDAY MONDAY

0E2E:33E0 54 55 45 53 44 41 59 20-20 57 45 44 4E 45 53 44 TUESDAY WEDNESD

0E2E: 33F0 41 59 54 4B 55 52 53 44-41 59 20 84 00 00 40 82 AYTHURSDAY ...@.

0E2E:3400 15 00 A4 35 46 52 49 53-41 54 53 55 4E 4D 4F 4E ..$5FRISATSUNMON

0E2E:3410 54 55 45 57 45 44 54 48-55 53 30 00 BE 35 23 23 TUEWEDTHUSO. >5##

0E2E:3420 23 23 20 4C 62 73 2E 20-20 20 20 20 20 20 20 20 ## Lbs.

0E2E: 3430 20 20 20 20 20 20 20 23-23 2E 23 20 20 20 23 23 ##. # ##

0E2E:3440 2E 23 20 20 20 23 23 2E-23 20 20 20 20 20 33 00 .# ##. # 3.

0E2E:3450 F2 35 20 20 20 20 20 20-20 20 23 23 23 20 20 20 r5 ###

0E2E:3460 20 20 20 20 20 23 23 23-23 20 20 20 20 20 20 20 ####

0E2E:3470 20 20 20 23 23 23 23 20-20 20 20 20 20 20 20 20 ####

0E2E: 3480 20 23 23 23 23 00 30 00-2A 36 23 23 23 23 20 20 ####.0.*6####

0E2E:3490 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:34A0 20 20 20 20 23 23 23 20-20 20 23 23 2E 23 20 20 ### ##.#

0E2E:34B0 20 23 23 2E 23 20 20 20-20 20 2A 00 5E 36 20 20 ##.# *.^6

0E2E: 34C0 20 20 23 23 23 23 20 4C-62 73 2E 20 20 20 20 20 #### Lbs.

0E2E:34D0 23 23 2E 23 20 20 20 20-20 20 23 23 2E 23 20 20 ##.#

0E2E:34E0 20 23 23 2E 23 20 20 20-34 00 8C 36 20 20 20 20 ##.# 4..6

0E2E:34F0 20 20 20 20 20 23 23 23-20 20 20 20 20 20 20 20 ###

0E2E: 3500 20 20 20 23 23 23 23 20-20 20 20 20 20 20 20 20 ####

0E2E:3510 20 23 23 23 23 20 20 20-20 20 20 20 23 23 23 23 #### ####

0E2E: 3520 2A 00 C4 36 54 55 52 4E-20 4F 4E 20 50 52 49 4E *.D6TURN ON PRIN

0E2E:3530 54 45 52 2C 20 41 4E 44-20 41 44 4A 55 53 54 20 TER, AND ADJUST

0E2E:3540 54 4F 20 54 4F 50 20 4F-46 20 46 4F 32 4D 15 00 TO TOP OF FORM..

0E2E: 3550 F2 36 50 52 45 53 53 20-60 43 27 20 54 4F 20 43 r6PRESS 'C' TO C

0E2E:3560 4F 4E 54 49 4E 55 45 00-05 00 0C 37 4C 50 54 31 ONTINUE....7LPT1

0E2E:3570 3A 03 0A 00 16 37 48 69-70 20 26 20 42 61 63 6B : ....7Hip & Back

0E2E:3580 0D 00 24 37 4C 65 67 20-45 78 74 65 6E 73 69 6F ..$7Leg Extensio

0E2E:3590 6E 3A 08 00 36 37 4C 65-07 20 43 75 72 6C 09 00 n:..67Leg Curl..

0E2E:35A0 42 37 50 75 6C 6C 20 4F-76 65 72 5F 09 00 50 37 B7Pull Over_..P7

0E2E:35B0 54 6F 72 73 6F 20 41 72-6D 70 0C 00 5E 37 44 6F Torso Armp ..^7Do

0E2E:35C0 75 62 6C 65 20 43 68 05-73 74 0D 00 6E 37 44 65 uble Chest..n7De

0E2E:35D0 63 6C 69 6E 65 20 50 72-65 73 73 95 0F 00 80 37 cline Press....7

0E2E:35E0 37 30 20 44 65 67 20 53-68 6F 75 6C 64 65 72 AA 70 Deg Shoulder*

0E2E: 35F0 07 00 94 37 54 72 69 63-65 70 73 C1 06 00 A0 37 ...7TricepsA.. 7

0E2E:3600 42 69 63 65 70 73 06 00-AA 37 48 69 70 20 49 6E Biceps..*7Hip In

0E2E:3610 07 00 B4 37 48 69 70 20-4F 75 74 1E 01 00 C0 37 ..47Hip Out...@7

0E2E:3620 3D 00 00 00 C6 37 1A 00-CA 37 3C -31 3E 20 20 20 =...F7..J7<1>0E2E:3630 20 44 41 49 4C 59 20 43-45 4E 53 55 53 20 52 45 DAILY CENSUS RE

0E2E:3640 50 4F 52 54 1B 00 E8 37-3C 32 3E 20 20 20 20 44 FORT..h7<2> D

0E2E:3650 41 49 4C 59 20 4C 4F 41-44 49 4E 47 20 52 45 50 AILY LOADING REP

0E2E:3660 4F 52 54 00 1A 00 08 38-3C 33 3E 20 20 20 20 46 OPT....8<3> F

0E2E:3670 4C 4F 57 20 50 41 54 54-45 52 4E 20 52 45 50 4F LOW PHTTERN REPO

0E2E: 3630 52 54 21 00 26 38 3C 34-3E 20 20 20 20 50 45 52 RT ! .&8<4> PER

0E2E:3690 48 4F 52 4D 41 4E 43 45-20 53 55 4D 4D 41 52 89 FORMANCE SUMMARY

0E2E: 36A0 20 52 45 50 4F 52 54 00-25 00 4C 38 3C 35 3C 20 REPORT.% 8<5>

0E2F:36B0 20 20 20 44 41 49 4C 59-20 45 58 45 52 43 49 53 DAILY EXERCIS 0E2E: 36C0 45 20 53 45 5353 49 4F-4E 20 52 45 50 4F 52 54 E SESSION REPORT

0E2E : 36D0 53 00 1C 00 76 38 3C 36-3E 20 20 20 20 47 52 4F S...v8<6> GRO 0E2E: 36E0 55 50 20 41 56 45 52 41-47 45 53 20 52 45 50 4F UP AVERAGES REPO

0E2E: 36F0 52 54 0B 00 96 38 3C 37-3E 20 20 20 20 45 58 49 RT...8<7> EXI

0E2E 3700 54 00 11 00 A6 38 45 4E-54 45 52 20 53 45 4C 45 T...&8ENTER SELE

0E2E 3710 43 54 49 4F 4E 2E 2E 00-07 00 BC 38 31 30 33 34 CTION.....<81234

0E2E 3720 35 36 37 C7 08 00 C8 38-54 48 49 4E 4B 49 4E 47 567G..H8THINKING

0E2E 3730 0C 00 D4 38 41 52 43 48-49 56 45 32 2E 44 41 54 ..T8ARCHIVE2.DAT

0E2E 3740 0A 00 E4 38 49 44 44 41-54 41 2E 44 41 54 02 00 ..d8IDDATA.DAT..

0E2E 3750 F2 38 2C 20 08 00 F8 38-53 4F 52 54 49 4E 47 20 r8, ..x8SORTING

0E2E: 3760 08 00 04 39 50 52 49 4E-54 49 4E 47 13 00 10 39 ...9PRINTING...9

0E2E: 5770 44 41 49 4C 59 20 43 45-4E 53 55 53 20 52 45 50 DAILY CENSUS REP

0E2E : 3780 4F 52 54 00 82 00 28 39-4E 41 4D 45 20 20 20 20 ORT... (9NAME

0E2E: 3790 20 20 20 20 20 20 20 20-20 20 20 20 20 52 45 53 RES

0E2E: 37A0 49 53 54 41 4E 43 45 20-20 20 52 45 50 49 54 49 ISTANCE REPITI

0E2E: 37B0 54 49 4F 4E 53 20 20 41-56 47 20 52 45 50 20 54 TIONS AVG REP T

0E2E: 37C0 49 4D 45 20 20 45 58 45-52 43 49 53 45 20 20 20 IME EXERCISE

0E2E: 37D0 20 41 56 47 20 52 4E 47 -20 4F 46 20 20 20 20 20 AVS RNG OF

0E2E: 37E0 43 41 4C 4F 52 49 45 53-20 20 20 20 20 20 20 20 CALORIES

0E2E: 37F0 20 43 41 4C 2F 20 20 20-20 20 43 41 4C 2F 4C 42 CAL/ CAL/LB

0E2E: 3800 2F 20 20 20 20 20 54 49-4D 45 83 00 AE 39 20 20 / TIME...9

0E2E: 3810 20 20 20 20 20 20 20 20 -20 20 20 20 20 20 20 20

0E2E: 3820 20 20 20 20 20 20 20 20 -20 20 20 20 20 20 20 20

0E2E: 3830 20 20 20 20 20 20 20 20 -20 20 20 20 20 20 20 50 P

0E2E: 3840 4F 53 20 20 20 4E 45 47-20 20 20 44 55 52 41 54 OS NEG DURAT

0E2E: 3850 49 4F 4E 20 20 20 20 20 -20 4D 4F 54 49 4F 4E 20 ION MOTION

0E2E: 3860 20 20 20 20 20 20 20 42 -55 52 4E 45 44 20 20 20 BURNED

0E2E: 3870 20 20 20 20 20 20 20 20-4C 42 20 20 20 20 20 20 LB

0E2E: 3880 20 20 53 45 43 20 20 20-20 20 20 4F 46 20 44 41 SEC OF DA

0E2E: 3890 59 00 7E 00 36 3A 20 20-20 20 20 20 20 20 20 20 Y.~.6:

0E2E: 33A0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 28 6C (1

0E2E: 38B0 62 73 29 20 20 20 20 20-20 20 20 20 20 20 20 20 bs)

0E2E: 38C0 20 20 20 20 20 20 28 73-65 63 29 20 28 73 65 63 (sec) (sec

0E2E: 38D0 29 20 28 6D 69 6E 3A 73 -65 63 29 20 20 20 20 20 ) (min:sec)

0E2E: 78E0 20 20 28 25 29 20 20 20-20 20 20 20 20 20 20 20 (%)

0E2E: 38F0 28 63 61 6C 29 20 20 20-20 20 20 20 20 28 63 61 (cal) (ca

0E2E: 3900 6C 2F 31 30 30 29 20 28-63 61 6C 2F 31 30 4B 29 1/100) (cal/10K)

0E2E: 3910 20 20 20 20 18 00 B8 3A -5C 20 20 20 20 20 20 20 . . 8:\

0E2E: 3920 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 5C

0E2E: 3970 0E 00 D4 3A 5C 20 20 20-20 20 20 20 20 20 20 20 ..T:\

0E2E: 3940 20 5C 0A 00 E6 3A 5C 20-20 20 20 20 20 20 20 5C \..f:\

0E2E: 3950 07 00 F4 3A 5C 20 20 20-20 20 5C 00 0F 00 00 3B ..t:\

0E2E: 3960 5C 20 20 20 20 20 20 20-20 20 20 20 20 20 5C 3F \ 0E2E: 3970 0B 00 14 3B 5C 20 20 20-20 20 20 20 20 20 5C 6A ...; \ j 0E2E: 3980 06 00 24 3B 5C 20 20 20-20 5C 00 00 00 00 00 00 ..$;\ 0E2E: 3990 48 87 02 00 36 3B 41 4D-00 00 16 8B 02 00 40 3B H...6; AM......@; 0E2E: 39A0 50 4D 00 80 22 8B 00 00-96 8B 02 00 4E 3B 20 30 PM.. " ..... . .N; 00 E2E: 39B0 02 00 54 3B 31 32 00 00-48 87 01 00 5E 3B 3A 11 ..T;12..H. ..^; : . 0E2E: 39C0 01 00 64 3B 20 00 09 00 -6A 3B 50 4F 4E 44 45 52 ..d; ...j;PONDER0E2E: 39D0 49 4E 47 00 00 00 40 83-00 00 28 85 14 00 80 3B ING...@... (....; 0E2E: 39E0 4441 49 4C 59 20 4C 4F-41 44 49 4E 47 20 52 45 DAILY LOADING RE 0E2E:39F0 504F 52 54 09 00 98 3B-50 52 49 4E 54 49 4E 47 FORT...;PRlNTING 0E2E:3A00 20 00 55 00 A6 3B 20 20-20 20 20 20 20 20 20 20 .U.&; 0E2E:3A10 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E:3A20 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E: 3A30 20 20 54 49 4D 45 20 4F-46 20 44 41 59 20 20 20 TIME OF DAY 0E2E:3A40 20 20 20 20 20 20 20 4E-55 4D 42 4E 52 20 4F 46 NUMBER OF 0E2E:3A50 20 45 53 45 52 43 49 53-45 52 53 00 0F 00 00 3C EXERCISERS....< 0E2E: 3A60 42 45 46 4F 52 45 20 20-36 3A 30 30 20 41 4D 00 BEFORE 6:00 AM. 0E2E:3A70 12 00 14 3C 23 23 23 23-23 23 23 23 23 23 23 23 ...<############ 0E2E:3A80 23 23 23 23 23 23 12 00-2A 3C 36 3A 30 30 20 41 ##### ..*<6:00 A 0E2E: 3A90 4D 20 54 4F 20 37 3A 30-30 20 41 4D 0F 00 40 3C M TO 7:00 AM..@< 0E2E:3AA0 23 23 23 23 23 23 23 23-23 23 23 23 23 23 23 00 ###############. 0E2E: 3AB0 12 00 54 3C 37 3A 30 30-20 41 4D 20 54 4F 20 38 ..T<7:00 AM TO 8 0E2E: 3AC0 3A 30 30 20 41 4D 12 00-6A 3C 38 3A 30 30 20 41 :00 AM.. j<8:00 A 0E2E:3AD0 4D 20 54 4F 20 39 3A 30-30 20 41 4D 13 00 80 3C M TO 9:00 AM...< 0E2E:3AE0 39 3A 30 30 20 41 4D 20-54 4F 20 31 30 3A 30 30 9:00 AM TO 10:00 0E2E:3AF0 20 41 4D 00 0E 00 98 3C-23 23 23 23 23 23 23 23 AM....<######## 0E2E:3B00 23 23 23 23 23 23 14 00-AA 3C 31 30 3A 30 30 20 ######..*< 10: 00 0E2E:3B10 41 4D 20 54 4F 20 31 31-3A 30 30 20 41 4D 0D 00 AM TO 11:00 AM.. 0E2E:3B20 C2 3C 23 23 23 23 23 23-23 23 23 23 23 23 23 00 B<#############. 0E2E:3B30 16 00 D4 3C 31 31 3A 30-30 20 41 4D 20 54 4F 20 ..T<11:00 AM TO 0E2E:3B40 31 32 3A 30 30 20 4E 4F-4F 4E 0B 00 EE 3C 23 23 12:00 NOON..n<## 0E2E:3B50 23 23 23 23 23 23 23 23-23 00 15 00 FE 3C 31 32 #########...~<12 0E2E:3B60 3A 30 30 20 4E 4F 4F 4E-20 54 4F 20 31 3A 30 30 :00 NOON TO 1:00 0E2E:3B70 20 50 4D 00 0C 00 18 3D-23 23 23 23 23 23 23 23 PM....=######## 0E2E:3B80 23 23 23 23 12 00 23 3D-31 3A 30 30 20 50 4D 20 ####.. (=1:00 PM 0E2E:3B90 54 4F 20 32 3A 30 30 20-50 4D 12 00 3E 3D 32 3A TO 2:00 PM..>=2: 0E2E:3BA0 30 30 20 50 4D 20 54 4F-20 33 3A 30 30 20 50 4D 00 PM TO 3:00 PM 0E2E:3BB0 12 00 54 3D 33 3A 30 30-20 50 4D 20 54 4F 20 34 .. T=3: 00 PM TO 4 0E2E:3BC0 3A 30 30 20 50 4D 12 00-6A 3D 34 3A 30 30 20 50 :00 PM.. j=4:00 P 0E2E:3BD0 4D 20 54 4F 20 35 3A 30-30 20 50 4D 12 00 80 3D M TO 5:00 PM...= 0E2E:3BE0 35 3A 30 30 20 50 4D 20-54 4F 20 36 3A 30 30 20 5:00 PM TO 6:00 0E2E:3BF0 50 4D 12 00 96 3D 36 3A-30 30 20 50 4D 20 54 4F PM =6:00 PM TO 0E2E:3C00 20 37 3A 30 30 20 50 4D-12 00 AC 3D 37 3A 30 30 7:00 PM.. ,=7:00 0E2E:3C10 20 50 4D 20 54 4F 20 38-3A 30 30 20 50 4D 12 00 PM TO 8:00 PM.. 0E2E:3C20 C2 3D 38 3A 30 30 20 50-4D 20 54 4F 20 39 3A 30 B=8:00 PM TO 9:0 0E2E:3C30 30 20 50 4D 0F 00 D8 3D-41 46 54 45 52 20 20 20 0 PM..X=AFTER 0E2E:3C40 39 3A 30 30 20 50 4D 00-00 00 28 00 07 00 F0 3D 9:00 PM... (...p= 0E2E: 3C50 2D 2D 2D 2D 2D 2D 2D 00-12 00 FC 3D 54 4F 54 41 -------...I=T0TA 0E2E:3C60 4C 20 20 20 20 20 20 20-20 20 20 20 20 20 13 00 L 0E2E:3C70 12 3E 46 4C 4F 57 20 50-41 54 54 45 52 4E 20 52 .>FLOW PATTERN R 0E2E:3C80 45 50 4F 52 54 00 03 00-2A 3E 53 45 53 53 2E 44 EPORT...*>SESS.D 0E2E: 3C90 41 54 55 00 36 3E 20 20-20 20 20 20 20 20 20 20 ATU.6> 0E2E:3CA0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E: 3CB0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E:3CC0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E:3CD0 20 20 2020 20 20 20 4E-55 4D 42 45 52 20 4F 46 NUMBER OF 0E2E:3CE0 20 45 58 45 52 43 49 53-45 52 53 00 72 00 90 3E EXERCISERS. r..> 0E2C:3CF0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E:3D00 54 49 4D 45 20 4F 46 20-44 41 59 20 20 20 20 20 TIME OF DAY 0E2E:3D10 20 20 20 20 20 20 20 20-20 20 4D 4F 4E 44 41 59 MONDAY

0E2E:3D20 2020 20 20 20 54 55 45-53 44 41 59 20 20 20 20 TUESDAY0E2E:3D30 57 45 44 4E 45 53 44 41 -59 20 20 54 48 5552 53 WEDNESDAY THURS0E2E: 3D40 44 41 59 20 20 20 46 52-49 44 41 59 20 20 20 20 DAY FRIDAY 0E2E:3D50 20 53 41 54 55 52 44 41-59 20 20 20 53 55 4E 44 SATURDAY SUND 0E2E: 3D60 41 59 16 00 06 3F 42 45-46 4F 52 45 20 20 36 3A AY...?BEFORE 6: 0F2E: 3D70 30 30 20 41 4D 20 20 20-20 20 20 20 16 00 20 3F 00 AM . . 0E2E:3D80 36 3A 30 30 20 41 4D 20-54 4F 20 37 3A 30 30 20 6:00 AM TO 7:00

0E2E: 3D90 41 4D 20 20 20 20 16 00-3A 3F 37 3A 30 30 20 41 AM .. :?7:00 A

0E2E:3DA0 4D 20 54 4F 2θ 38 3A 30-30 20 41 4D 20 20 20 20 M TO 8:00 AM

0E2E:3DB0 16 00 54 3F 38 3A 30 30-20 41 4D 20 54 4F 20 39 .. T?8:00 AM TO 9

0E2E:3DC0 3A 30 30 20 41 4D 20 20-20 20 00 00 00 84 16 00 : 00 AM

0E2E:3DD0 72 3F 39 3A 30 30 20 41-4D 20 54 4F 20 31 30 3A r?9:00 AM TO 10:

0E2E:3DE0 30 30 20 41 4D 20 20 20-16 00 8C 3F 31 30 3A 30 00 AM ...?10:0

0E2E:3DF0 30 20 41 4D 20 54 4F 20-31 31 3A 30 30 20 41 4D 0 AM TO 11:00 AM

0E2E:3E00 20 20 00 00 20 84 00 00-30 84 16 00 AE 3F 31 32 .. ...0....?12

0E2E:3E10 3A 30 30 20 4E 4F 4F 4E-20 54 4F 20 31 3A 30 30 :00 NOON TO 1:00

0E2E:3E20 20 50 4D 20 00 00 40 84-16 00 CC 3F 31 3A 30 30 PM ..®...L?1:00

0E2E:3E30 20 50 4D 20 54 4F 20 32-3A 30 30 20 50 4D 20 20 PM TO 2:00 PM

0E2E:3E40 20 20 00 00 50 84 16 00-EA 3F 32 3A 30 30 20 50 ..P... j?2:00 P

0E2E:3E50 4D 20-54 4F 20 33 3A 30-30 20 50 4D 20 20 20 20 M TO 3:00 PM

0E2E:3E60 00 00 60 84 16 00 08 40-33 3A 30 30 20 50 4D 20 .. ....@23:00 PM

0E2E:3E70 54 4F 20 34 3A 30 30 20-50 4D 20 20 20 20 00 00 TO 4:00 PM

0E2E:3E80 70 84 16 00 26 40 34 3A-30 30 20 50 4D 20 54 4F p...&@4:00 PM TO

0E2E:3E90 20 35 3A 30 30 20 50 4D-20 20 20 20 00 00 00 85 5:00 PM ....

0E2E:3EA0 16 00 44 40 35 3A 30 30-20 50 4D 20 54 4F 20 36 ..D@5:00 PM TO 6

0E2E:3EB0 3A 30 30 20 50 4D 20 20-20 20 00 00 08 85 16 00 : 00 PM

0E2E:3EC0 62 40 30 3A 30 30 20 50-4D 20 54 4F 20 37 3A 30 b@6: 00 PM TO 7:0

0E2E:3ED0 30 20 50 4D 20 20 20 20-00 00 10 85 16 00 80 40 0 PM .......@

0E2E:3EE0 37 3A 30 30 20 50 4D 20-54 4F 20 38 3A 30 30 20 7:00 PM TO 8:00

0E2E:3EF0 50 4D 20 20 20 20 00 00-18 85 16 00 9E 40 38 3A PM .......@8:

0E2E:3F00 30 30 20 50 4D 20 54 4F-20 39 3A 30 30 20 50 4D 00 PM TO 9:00 PM

0E2E:3F10 20 20 20 20 00 00 20 85-16 00 BC 40 41 46 54 45 .. ...<@AFTE

0E2E:3F20 52 20 20 20 39 3A 30 30-20 50 4D 20 20 20 20 20 R 9:00 PM

0E2E:3F30 20 20 16 00 D6 40 20 20-20 20 20 20 20 20 20 20 ..v@

0E2E:3F40 20 20 20 20 20 20 20 20-20 20 20 20 0B 00 F0 40 ..p@

0E2E:3F50 20 20 20 20 20 2D 2D 2D-2D 2D 2D 00 16 00 00 41 ------....A

0E2E:3F60 54 4F 54 41 4C 20 20 20-20 20 20 20 20 20 20 20 TOTAL

0E2E:3F70 20 20 20 20 20 20 2F 00-1A 41 52 45 50 4F 52 54 /..AREPORT

0E2E:3FS0 20 4F 4E 20 41 4C 4C 20-4D 45 4D 42 45 52 53 20 ON ALL MEMBERS

0E2E:3F90 4F 52 20 4A 55 53 54 20-4F 4E 45 20 28 00 41 4C OR JUST ONE ('AL

0E2E:3FA0 4C 27 2F 60 4F 4E 45 27-29 00 03 00 4E 41 41 4C L ' / ' ONE ' ) ... NAAL

0E2E:3FB0 4C 62 03 00 56 41 4F 4E-45 00 2B 00 5E 41 45 4E Lb..VAONE.+.^AEN

0E2E:3FC0 54 45 52 20 60 41 4C 4C-27 20 4F 52 20 60 4F 4E TER 'ALL' OR 'ON

0E2E:3FD0 45 27 2E 20 54 59 50 45-20 60 43 27 20 54 4F 20 E'. TYPE 'C' TO

0E2E:3FE0 43 4F 4E 54 49 4E 55 45-2E 00 IA 00 8E 41 50 45 CONTINUE..... APE

0E2E:3FF0 52 46 4F 52 4D 41 4E 43-45 20 53 55 4D 4D 41 52 RFORMANCE SUMMAR

0E2E:4000 59 20 52 45 50 4F 52 54-06 00 AC 41 4E 41 4D 45 Y REPORT.. ,ANAME

0E2E:4010 3A 20 1B 00 B6 41 5C 20-20 20 20 20 20 20 20 20 : ..6A\

0E2E: 4020 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:4θ30 5C D4 13 00 D6 41 4D 45-4D 42 45 52 53 48 49 50 \T..VAMEMBERSHIP

0E2E:4040 20 4E 55 4D 42 45 52 3A-20 27 06 00 EE 41 23 23 NUMBER: '..nA##

0E2E:4050 23 27 23 23 31 00 F8 41-20 20 20 20 20 20 20 20 ####..xA

0E2E:4060 20 20 20 20 20 20 20 20-20 20 20 20 20 52 45 53 RES 0E2E:4070 49 53 54 41 4E 47 45 20-20 20 52 45 50 49 54 49 ISTANCE REPIT

0E2E:4080 54 49 4F 4E 53 20 20 41-56 47 20 52 45 50 20 54 TIONS AVG REP T0E2E: 4090 49 4D 45 20 20 45 58 45-52 43 49 53 4b 20 20 20 IME EXERCISE0E2E:40A0 20 41 56 47 20 52 4E 47-20 4F 46 20 20 20 20 20 AVG RNG OF0E2E:40B0 43 41 4C 4F 52 49 45 53-20 20 20 20 20 20 20 20 CALORIES 0E2E: 40C0 20 43 41 4C 2F 20 20 20-20 20 43 41 4C 2F 4C 42 CAL/ CAL/LB 0E2C:40D0 2F 20 20 20 20 54 49 4D-45 00 82 00 7E 42 20 20 / TIME...~B 0E2E: 40E0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

ME2E:40F0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:4100 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 50 P

0E2E: 4110 4F 53 20 20 20 4E 45 47-20 20 20 44 55 52 41 54 OS NEG DURAT

0E2E:4120 49 4F 4E 20 20 20 20 20-20 4D 4F 54 49 4F 4E 20 ION MOTION

0E2E:4130 20 20 20 20 20 20 20 42-55 52 4E 45 44 20 20 20 BURNED

0E2E:4140 20 20 20 20 20 20 20 20-4C 42 20 20 20 20 20 20 LB

0E2E:4150 20 20 53 45 43 20 20 20-20 20 4F 46 20 44 41 59 SEC OF DAY

0E2E:4160 7F 00 04 43 20 20 20 44-41 54 45 20 20 20 20 20 ...C DATE

0E2E: 4170 20 20 20 20 20 20 20 20-20 20 20 20 28 6C 62 73 (lbs

0E2E:4180 29 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 )

0E2E:4190 20 20 20 20 28 73 65 63-29 20 28 73 65 63 29 20 (sec) (sec)

0E2E:41A0 2B 6D 69 6E 3A 73 65 63-29 20 20 20 20 20 20 20 (min: sec)

0E2E:41B0 23 25-29 20 20 20 20 20-20 20 20 20 20 20 28 63 (%) (c

0E2E:41C0 61 6C 29 20 20 20 20 20-20 20 23 63 61 6C 2F 31 al) (cal/1

0E2E:41D0 30 30 29 20 20 28 63 61-6C 2F 31 30 4B 29 20 20 00) ( cal/10K)

0E2E:41E0 20 20 20 00 03 00 S8 43-2C 20 28 D7 01 00 90 43 ....C, (W...C

0E2E:41F0 29 00 06 00 96 43 50 49-44 20 3D 20 03 00 A0 43 ) .... CPID = .. C

0E2E: 4200 20 20 20 00 11 00 A8 43-20 20 20 20 20 20 20 20 ... (C

0E2E:4210 20 20 20 20 20 20 20 20-20 1D 01 00 BE 43 2D 00 ...>C-.

0E2E: 4220 14 00 C4 43 5C 20 20 20-20 20 20 20 20 20 20 20 ..DC\

0E2E: 4230 20 20 20 20 20 20 20 5C-0F 00 DC 43 4D 4F 4E 54 \..\CMONT

0E2E: 4240 48 4C 59 20 41 56 45 52-41 47 45 00 0D 00 F0 43 HLY AVERAGE... pC

0E2E: 4250 23 20 53 45 53 53 49 4F-4E 53 20 3D 20 00 15 00 # SESSIONS = ...

0E2E: 4260 02 44 47 52 4F 55 50 20-41 56 45 52 41 47 45 20 .DGROUP AVERAGE

0E2E:4270 56 41 4C 55 45 53 3A 00-01 00 1C 44 4D D3 00 00 VALUES:....DMS..

0E2E:4280 48 00 00 00 80 81 02 00-2A 44 20 20 00 00 24 86 H.......*D ..$.

0E2E:4290 00 00 28 86 00 00 2C 86-17 00 3C 44 45 58 45 52 .. (.......<DEXER

0E2E: 42A0 43 49 53 45 20 53 45 53-53 49 4F 4E 20 52 45 50 CISE SESSION REP

0E2E: 42B0 4F 52 54 00 7F 00 53 44-20 20 20 20 20 20 20 20 ORT...XD

0E2E-.42C0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:42D0 20 20 52 45 53 49 53 54-41 4E 43 45 20 20 20 28 RESISTANCE (

0E2E: 42E0 2A 29 20 20 20 20 52 45-50 53 20 20 41 56 47 20 *} REPS AV8

0E2E: 42F0 52 45 50 20 54 49 4D 45-20 20 20 45 58 45 52 43 REP TIME " EXERC

0E2E:4300 49 53 45 20 20 20 20 41-56 47 20 52 4E 47 20 4F ISE AVS RNO 0

0E2E:4310 46 20 20 20 43 41 4C 4F-52 49 45 53 20 20 20 20 F CALORIES

0E2E:4320 20 31 30 30 20 78 20 43-41 4C 20 20 20 20 31 30 100 .: CAL 10

0E2E: 4330 4B 20 78 20 43 41 4C 00-7E 00 DC 44 20 20 20 20 K :: CAL.^~.\D

0E2E:4340 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 41 A

0E2E:4350 43 54 55 41 4C 20 20 20-20 4E 45 53 54 20 20 20 CTUAL NEXT

0E2E:4360 20 20 41 47 52 45 45 2F-20 20 20 20 20 20 20 20 AGREE/

0E2E: 4370 20 50 4F 53 20 20 20 20-4E 45 47 20 20 20 20 44 POS NEG D

0E2E:4380 55 52 41 54 49 4F 4E 20-20 20 20 20 20 4D 4F 54 URATION MOT

0E2E:4390 49 4F 4E 20 20 20 20 20-20 42 55 52 4E 45 44 20 ION BURNED

0E2E:43A0 20 20 20 20 20 20 2F 4C-42 20 57 54 20 20 20 20 /LB WT

0E2E: 4330 20 20 20 2F 4C 42 21- 53-45 43 7E 00 5E 45 20 20 /LB/SΕC^~.^E

0E2E:43C0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:43D0 20 20 28 4C 42 53 29 20-20 20 20 54 49 4D 45 20 (LBS) TIME 0E2E: 43E0 20 20 20 20 4E 45 57 20-57 54 20 20 20 20 20 20 NEW WT

0E2E:43F0 20 20 28 53 45 43 29 20-20 28 53 45 43 29 20 20 (SEC) (SEC)

0E2E 4400 28 4D 49 4E 3A 53 45 43-29 20 20 20 20 20 20 20 (MIN: SEC)

0E2E: 4410 28 25 29 20 20 20 20 20-20 20 20 20 20 20 20 20 (% )

0E2E: 4420 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E: 4430 20 20 20 20 20 20 2F 4C-42 20 57 54 7E 00 E0 45 /LH WT . E 0E2E:4440 4D 41 43 48 49 4E 45 20-20 20 20 20 20 20 20 20 MACHINE 0E2E:4450 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 0E2E:4460 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:4470 20 20 20 20 20 20 20 20-20 20 2θ 20 20 20 20 20

0E2E:4480 20 20 20 20 23 43 55 4D-29 20 20 20 20 20 20 20 (CUM)

0E2E: 4490 20 20 20 20 20 20 20 20-20 20 20 20 20 20 28 43 (C

0E2E:44A0 55 4D 29 20 20 20 20 20-20 20 20 28 43 55 4D 29 UM) (CUM)

0E2E:44B0 20 20 20 20 20 20 20 20-28 43 55 4D 29 20 0C 00 (CUM) ..

0E2E:44C0 62 46 41 52 43 48 49 56-45 53 2E 44 41 54 2D 00 bFARCHIVES.DAT-.

0E2E:44D0 72 46 4E 6F 20 41 72 63-68 69 76 65 73 20 64 61 rFNo Archives da

0E2E:44E0 74 61 20 66 69 6C 65 2E-20 50 72 65 73 73 20 60 ta file. Press

0E2E:44F0 43 27 20 74 6F 20 63 6F-6E 74 69 6E 75 65 2E 00 C to continue..

0E2E: 4500 00 00 20 00 00 00 20 87-00 00 48 86 03 00 B0 46 .. ... ...H...0F

0E2E:4510 59 45 53 D4 00 00 00 00-00 80 6D 8B 00 80 36 89 YEST.......m...6.

0E2E:4520 00 00 1E 87 07 00 C8 46-23 23 23 23 23 23 23 00 ..... .HF#######.

0E2E:4530 14 00 D4 46 50 72 69 6E-74 69 6E 67 20 72 65 70 ..TFPrinting rep

0E2E:4540 6F 72 74 20 66 6F 72 20-16 00 EC 46 42 4F 44 59 ort for ..1FBODY

0E2E: 4550 20 57 45 49 47 48 54 20-20 20 20 20 20 3A 20 20 WEIGHT :

0E2E:4560 20 20 00 80 6D 8B 10 00-0A 47 45 58 45 52 43 49 ..m....GEXERCI

0E2E:4570 53 45 20 44 41 54 45 3A-20 20 37 00 1E 47 2D 2D SE DATE: 7..G--

0E2E:4580 2D 2D 2D 2D 2D 2D 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D ----------------

0E2E:4590 2D 2D 2D 2D 2D 2D 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D ----------------

0E2E: 45A0 2D 2D 2D 2D 2D 2D 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D ----------------

0E2E: 45B0 2D 2D 2D 2D 2D 00 00 00-6D 00 04 00 5E 47 46 49 ----- ...m...^GFI

0E2E:45C0 4E 49 02 00 66 47 4E 4F-15 00 6C 47 5C 20 20 20 NI..fGNO..1G\

0E2E:45D0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E: 45E0 5C 00 08 00 86 47 5C 20-20 20 20 20 20 5C 00 00 \... .G\ \..

0E2E:45F0 30 85 00 00 10 86 00 00-30 86 00 00 20 83 AC C5 0.......0. .. . ,E

0E2E:4600 27 70 04 00 A6 47 20 20-20 20 0A 00 AE 47 20 5F P .. &G ...G _

0E2E:4610 5F 5F 5F 5F 5F 20 20 20-02 00 BC 47 5C 5C 07 00 ..<G\\..

0E2E: 4620 C2 47 23 23 23 23 23 2E-23 00 05 00 CE 47 20 20 BG#####. ...NG

0E2E:4630 20 20 20 00 0D 00 D8 47-5C 20 20 20 20 20 20 20 ...XG\

0E2E:4640 20 20 20 20 5C 00 03 00-EA 47 23 23 23 68 09 00 \... jG###h..

0E2E:4650 F2 47 20 20 20 20 20 20-20 20 20 00 07 00 00 48 rG ....H

0E2E:4660 20 20 20 20 20 20 20 00-0D 00 0C 48 53 45 53 53 . ...HSESS

0E2E:4670 49 4F 4E 20 54 4F 54 41-4C 00 0E 00 1E 48 23 20 ION TOTAL.... H#

0E2E:4680 45 58 45 52 43 49 53 45-53 20 3D 20 20 00 30 43 EXERCISES = .OH

0E2E:4690 50 55 4C 53 45 20 20 20-20 20 20 20 20 20 20 20 PULSE

0E2E:46A0 20 20 20 20 42 65 67 69-6E 6E 69 6E 67 20 2D 20 Beginning -

0E2E : 46B0 28 00 54 48 20 20 20 20-20 20 20 20 20 20 20 20 (.TH

0E2E:46C0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:46D0 20 20 20 4D 69 64 64 6C-65 20 2D 20 28 00 80 48 Middle - (..H

0E2E: 46E0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E:46F0 20 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20

0E2E: 4700 20 20 45 6E 64 20 2D 20-3F 00 AC 48 20 2A 20 2D End - ?.,H * -

0E2E:4710 2D 20 43 63 65 63 6B 2M-69 66 20 6E 65 78 74 20 - Check if next

0E2E: 4720 74 69 6D 65 20 77 65 69-67 68 74 20 4F 4B 2C 20 time weight OK ,

0E2E:4730 6F 72 20 77 72 69 74 65-20 69 6E 20 64 65 73 69 or write in desi

0E2E: 4740 72 65 64 20 77 65 69 67-68 74 2E 00 15 00 F0 48 red weight....pH

0E2E : 4750 47 52 4F 55 50 20 41 58-45 52 41 47 45 53 20 52 GROUP AVERAGES R

0E2E: 4760 45 50 4F 52 54 00 80 00-0A 19 20 41 47 45 20 20 EPΌRT....I AGE

0E2E: 4770 20 20 20 20 20 20 20 20-20 20 20 20 20 41 43 54 ACT

0E2E : 4780 55 41 40 20 20 20 20 20-20 20 41 43 54 55 41 4C UAL ACTUAL0E2E: 4790 20 20 20 20 20 20 20 20-41 56 45 52 41 47 45 20 AVERAGE 0E2E: 47A0 52 45 50 20 54 49 4D 45-20 20 20 20 20 45 53 45 REP TIME EXE 0E2E:47B0 52 43 49 53 45 20 20 20-20 41 56 47 20 52 4E 47 RCISE AVG RNG

0E2E: 47C0 20 4F 46 20 20 20 20 20-43 41 4C 4F 52 49 45 53 OF CALORIES

0E2E: 47D0 20 20 20 20 20 20 20 20-20 20 43 41 4C 2F 20 20 CAL/

0E2E:47E0 20 20 20 43 41 4C 2F 4C-42 2F 80 00 8E 49 47 52 CAL/LB/... IGR

0E2E: 47F0 4F 55 50 20 20 20 20 20-20 20 20 20 20 20 20 52 OUP R

0E2E:4800 45 53 49 53 54 41 4E 43-45 20 20 52 45 50 49 54 ESISTANCE REPIT

0E2E:4810 49 54 49 4F 4E 53 20 20-20 20 20 20 20 20 50 4F ITIONS PO

0E2E: 4820 53 20 20 20 20 20 20 20-4E 45 47 20 20 20 20 20 S NEG

0E2E: 4830 20 44 55 52 41 54 49 4F-4E 20 20 20 20 20 20 4D DURATION M

0E2E:4840 4F 54 49 4F 4E 20 20 20-20 20 20 20 20 42 55 52 OTION BUR

0E2E: 4850 4E 45 44 20 20 20 20 20-20 20 20 20 20 20 20 4C NED L

0E2E:4860 42 20 20 20 20 20 20 20-20 53 45 43 20 20 31 00 B SEC ..

0E2E:4870 12 4A 20 20 20 20 20 20-20 20 20 20 20 20 20 20 .J

0E2E:4880 20 20 20 20 20 20 28 4C-42 53 29 20 20 20 20 20 (LBS)

0E2E:4890 20 20 23 4C 42 53 29 20-20 20 20 20 20 20 20 20 (LBS)

0E2E: 48A0 20 23 53 45 43 29 20 20-20 20 20 28 53 45 43 29 (SEC) (SEC)

0E2E:48B0 20 20 20 20 28 4D 49 4E-3A 53 45 43 29 20 20 20 (MIN:SEC)

0E2E:48C0 20 20 20 20 20 28 25 29-20 20 20 20 20 20 20 20 (%)

0E2E:48D0 20 20 28 63 61 6C 29 20-20 20 20 20 20 20 20 20 (cal)

0E2E:48E0 28 63 61 6C 2F 31 30 30-29 20 28 63 61 6C 2F 31 (cal/100) (cal/1

0E2E:48F0 30 4B 29 00 04 00 98 4A-4D 45 4E 3A 11 00 A0 4A OK)....JMEN:.. J

0E2E:4900 5C 20 20 20 20 20 20 20-20 20 20 20 20 20 20 20 \

0E2E:4910 5C 00 6D 00 B6 4A 20 20-20 23 23 23 23 20 20 20 \.m.6J ####

0E2E:4920 20 20 20 20 20 20 23 23-23 20 20 20 20 20 20 20 ###

0E2E:4930 20 20 20 20 03 23 2E 23-20 20 20 20 20 20 23 23 ##.# ##

0E2E:4940 2E 23 20 20 20 20 20 20-20 23 23 3A 03 03 20 20 .# ##:##

0E2E:4950 20 20 20 20 20 20 20 23-23 23 20 20 20 20 20 20 ###

0E2E: 4960 20 20 20 20 20 20 23 23-23 20 20 20 20 20 20 20 ###

0E2E:4970 20 20 20 20 20 03 23 23-20 20 20 20 20 20 20 23 ### #

0E2E:4980 2323 20 00 06 00 28 4B-57 4F 4D 45 4E 3A 07 00 ## ... (KWOMEN: ..

0E2E: 4990 32 4B 41 4C 4C 20 4D 45-4E 00 09 00 3E 4B 41 4C 2KALL MEN... "-KAL

0E2E: 49A0 4C 20 57 4F 4D 45 4E 00-0F 00 4C 4B 41 4C 4C 20 L WOMEN...LKALL

0E2E:49B0 4D 45 4E 20 26 20 57 4F-4D 45 4E 00 0C 00 60 4B MEN & WOMEN... 'K

0E2E:49C0 47 52 4F 55 50 41 56 47-2E 44 41 54 1A 00 70 4B GROUPAVG. DAT.. pK

0E2E:49D0 4C 4F 41 44 49 4E 47 20-47 52 4F 55 50 20 41 56 LOADING GROUP AV

0E2E:49E0 45 52 41 47 45 20 44 41-54 41 00 00 70 86 00 00 ERAGE DATA..p...

0E2E:49F0 00 87 02 00 96 4B 2B 35-0C 00 9C 4B 46 41 43 49 .....K+5...KFACI

0E2E:4A00 4C 49 54 59 2E 44 41 54-00 00 00 80 21 00 B0 4B LITY.DAT.... !.OK

0E2E:4A10 43 72 65 61 74 65 64 20-62 79 20 50 68 79 73 69 Created by Physi

0E2E:4A20 6F 20 44 65 63 69 73 69-6F 6E 73 2C 20 49 6E 63 o Decisions, Inc

0E2E: 4A30 2E 00 21 00 D6 4B 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D .. ! . VK----------

0E2E:4A40 2D 2D 2D 2D 2D 2D 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D ----------------

0E2E: 4A50 2D 2D 2D 2D 2D 2D 2D 00-06 00 FC 4B 44 41 54 45 - -----...!KDATE

0E2E: 4A60 3A 20 0A 00 06 4C 46 41-43 49 4C 49 54 59 3A 20 : ...LFACILITY: 0E2E: 4A70 10 00 14 4C 2D 2D 2D 2D-2D 2D 2D 2D 2D 2D 2D 2D ...L------------ 0E2E:4A80 2D 2D 2D 2D 15 00 28 4C-2D 2D 2D 2D 2D 2D 2D 2D ----..(L--------

0E2E: 4A90 2D 2D 2D 2D 2D 2D 2D 2D-2D 2D 2D 2D 2D 00 00 00 -------------...

0E2E: 4AA0 00 00 0C 00 46 4C 41 52-43 48 49 56 45 31 2E 44 .... FLARCHIVE1.D 0E2E: 4AB0 41 54 1E 00 56 4C 45 4E-54 45 52 20 52 45 50 4F AT.. VLEUTER REPO0E2E:4AC0 52 54 20 4D 4F 4E 54 48-20 28 31 20 54 48 52 55 RT MONTH (1 THRU 0E2E:4AD0 20 31 32 29 6C 00 78 4C-4A 41 4E 55 41 52 59 20 12) 1.xLJANUARY

0E2E:4AE0 20 46 45 42 52 55 41 52-59 20 4D 41 52 43 48 20 FEBRUARY MARCH 0E2E:4AF0 20 20 20 41 50 52 49 4C-20 20 20 20 4D 41 59 20 APR IL MAY 0E2E:4B00 20 20 20 20 20 4A 55 4E-45 20 20 20 20 20 4A 55 JUNE JU

0E2E:4B10 4C 59 20 20 20 20 20 41-55 47 55 53 54 20 20 20 LY AUGUST

0E2E:4B20 53 45 50 54 45 4D 42 45-52 4F 43 54 4F 42 45 52 SEPTEMBEROCTOBER

0E2E:4B30 20 20 4E 4F 56 45 4D 42-45 52 20 44 45 43 45 4D NOVEMBER DECEM

0E2E:4B40 42 43 52 20 12 00 E8 4C-20 46 4F 52 20 54 48 45 BER .. hL FOR THE

0E2E:4B50 20 4D 4F 4E 54 48 20 4F-46 20 1A 00 FE 4C 45 4E MONTH OF ..~LEN

0E2E:4B60 54 45 52 20 50 45 52 53-4F 4E 41 4C 20 49 44 20 TER PERSONAL ID

0E2E: 4B70 4E 55 4D 42 45 52 3A 20-2D 00 1C 4D 49 44 20 23 NUMBER: -..MID #

0E2E:4B80 20 4E 4F 54 20 49 4E 20-44 41 54 41 20 42 41 53 NOT IN DATA BAS

0E2E:4B90 45 2E 20 50 52 45 53 53-20 60 43 27 20 54 4F 20 E. PRESS 'C' TO

0E2E:4BA0 43 4F 4E 54 49 4E 55 45-2E 00 00 00 C0 82 00 00 CONTINUE....@...

0E2E:4BB0 00 00 00 00 70 86 00 00-00 00 00 00 00 00 00 00 ....P...........

0E2E:4BC0 FF FF 01 00 00 00 00 00-00 00 00 00 00 00 00 00 ............... .

0E2E:4BD0 06 BA 0B 13 8E DA 26 8B-3E 02 00 8E C2 57 B9 0C .....Z&.>...BW9.

0E2E:4BE0 00 BE F1 01 BF 1A 0C 0E-1F FC F3 A4 B1 19 33 C0 .>q.?....!s$1.3@

0E2E-.4BF0 F3 AA 8E DA 5F B4 0F BA-1A 0C CD 21 0A C0 74 3D s*.Z_4.:..M!.@t=

0E2E:4C00 C6 06 1A 0C 01 B4 0F CD-21 0A C0 74 30 1E 0E 1F F....4.M!.@t0...

0E2E:4C10 BA BC 01 B4 09 CD 21 1F-C6 06 22 00 02 BA 22 00 : <. 4.M!.F.".. :".

0E2E:4C20 B4 0A CD 21 80 3E 23 00-01 75 E2 A0 24 00 24 DF 4.M!.>#..ub $.$_

0E2E: 4C30 2C 40 74 D9 3C 1A 77 D5-A2 1A 0C EB B8 33 C0 A3 ,@tY<.wU"..k83@#

0E2E: 4C40 3B 0C A3 3D 0C 40 A3 28-0C BA 00 0C B4 1A CD 21 ;.#=.@#(.:..4.M!

0E2E: 4C50 B9 1A 00 BA 1A 0C B4 27-CD 21 A1 08 0C 05 1F 00 9...:..4'M!!1 ......

0E2E: 4C60 25 E0 FF A3 3B OC C7 06-28 0C 10 00 8B 16 04 0C % .#; .G. (.......

0E2E:4C70 4A B1 05 D3 E2 2B D0 A1-02 0C 05 0F 00 B1 04 D3 J1.Sb+P!.. ...1.S

0E2E: 4C80 E8 03 D0 89 16 04 0C 2B-FA 83 EF 14 8C D6 8B DC h.p....+z.0..V.\

0E2E: 4C90 83 C3 11 B1 04 D3 EB 03-F3 3B FE 73 03 E9 B3 00 .C.1.Sk.s;~s.13.

0E2E:4CA0 8B EF 1E 8E DF 33 D2 B4-1A CD 21 1F 8B 0E 04 OC .o.._3R4.M!.....

0E2E:4CB0 BA 1A 0C B4 27 CD 21 29-0E 04 0C 75 26 A1 18 0C : ..4'M!)...u&!..

0E2E:4CC0 A3 3B 0C C7 06 28 0C 01-00 BA 00 0C B4 1A CD 21 #:.G.(...:..4.M!

0E2E:4CD0 83 3E 06 0C 00 74 22 B4-27 BA 1A 0C B9 04 00 CD . >...t"4':..9..M

0E2E:4CE0 21 0A C0 75 69 SB 3E 00-0C A1 02 0C 03 C5 8E C0 !.@ui.>..!...E.@

0E2E: 4CF0 26 01 2D FF 0E 06 0C 75-DE 5B 01 2E 16 0C 1E 07 &.-....u^[......

0E2E: 4D00 8E DD B9 00 06 33 F6 8B-FE FC F3 A5 06 1F 1E B8 .19..3v.~!s%....8

0E2E:4D10 65 11 8E D8 B9 EB 12 2B-C8 D1 E1 D1 E1 D1 E1 B8 e.. X9k. +HQaQaQa8

0E2E:4D20 5C 16 8E C0 33 F6 33 FF-F3 A5 1F 8C D1 BC D8 2B \..@3v3.s%...Q.X+

0E2E:4D30 C8 81 F9 00 10 76 03 B9-00 10 D1 E1 D1 E1 D1 E1 H.y.. v.9..QaQaQa

0E2E: 4D40 BA 65 11 8E C2 33 F6 8B-FE EA 06 00 5E 11 BA 90 :e. .B3v.~j. .^. : .

0E2E:4D50 01 EB 03 BA A6 01 0E 1F-B4 09 CD 21 33 C0 50 CB .k.:&...4.M!3@PK

0E2E: 4D60 0D 0A 45 72 72 6F 72 20-69 6E 20 45 5B 45 20 66 ..Error in EXE f

0E2E:4D70 69 6C 65 0D 0A 24 0D 0A-50 72 6F 67 72 61 6D 20 ile..$..Program

0E2E:4D80 74 6F 6F 20 6C 61 72 67-65 0D 0A 24 0D 0A 43 61 too large..$..Ca

0E2E:4D90 6E 6E 6F 74 20 66 69 6E-64 20 41 3A 42 41 53 52 nnot find A:BASR

0E2E:4DA0 55 4E 2E 45 58 45 0D 0A-45 6E 74 65 72 20 6E 65 UN.EXE..Enter ne

0E2E:4DB0 77 20 64 72 69 76 65 20-6C 65 74 74 65 72 3A 20 w drive letter:0E2E:4DC0 24 00 42 41 53 52 55 4E-20 20 45 58 45 00 00 00 $.BASRUN EXE...

0E2E: 4DD0 00

Claims

1. An exercise information system comprising: a plurality of exercise machines; a machine data unit attached to each exercise machine including means for monitoring exercise performed on the machine; a central processor for collecting data from a plurality of machine data units and machines; and means for transmitting data to and from the machine data units and central processor.

2. An exercise information system for use by a plurality of exercisers with a plurality of exercise machines, the system comprising : a central processing unit; means for inputting and storing data relating to the exercisers in the central processing unit; a plurality of machine data units, each machine data unit coupled to a corresponding exercise machine and including means for identifying the exerciser using the exercise machine and storing such identifying data, and means for monitoring the exercise performed on the exercise machine and recording exercise data relating to such exercise; means for transmitting the exercise data and the identifying data from the exercise machines to the central processing unit; and means at the central processor for receiving and storing the exercise data and identifying data from a plurality of exercise machines and preparing a report of each exerciser's performance on the exercise machines to provide the exerciser with decision support information.

3. The exercise information system of claim 2, further including: information relating to a model exercise program stored within the system; and means for comparing an exerciser's actual performance data to such model exercise program information and including such comparison in the report.

4. The exercise information system of claim 2, further including means for displaying model performance and actual exerciser performance at at least some of the exercise machines to provide immediate performance information to the exerciser.

5. The exercise information system of claim 2, further including means for collecting and reporting the time and amount of use of exercise machines by the exercisers to provide facility usage information for facility managers and the like.

6. The exercise information system of claim 2 wherein the identifying means comprises: means for receiving a key having a resistance value unique to a particular exerciser, reading such value when a key is inserted into the receiving means, and storing such resistance value to identify the exerciser to the system.

7. A method of obtaining exercise information comprising the steps of: assigning each of a plurality of exercises with a unique identification code and a key containing information corresponding to such code; reading each exerciser's identification code before the exerciser begins to use an exercise machine and storing such code; monitoring the exercise performed by an exerciser on each machine and storing data relating to such performance; transferring the stored performance data and corresponding identification code to a central location; compiling data from a plurality of exercise machines for an exerciser and displaying such data in a report format for use by the exerciser.

8. The method of claim 7, additionally including the step of: monitoring the heart rate of an exerciser while the exerciser is using a preselected exercise machine and storing, transferring and compiling such data with the exercise data from the preselected exercise machine.

9. The method of claim 7, additionally including the step of: monitoring exercise performance at an exercise machine and displaying performance information to the exerciser together with information corresponding to optimum performance goals to enable comparison by the exerciser while exercising.

10. An exercise information system for use with exercise machines requiring an exerciser to raise and lower weights contained within the machine, the system comprising: means for measuring the movement of the weights as an exerciser raises and lowers the weights and generating a display corresponding to such movement; and means for generating a preset display corresponding to a preferred movement of the weights, the preset display being generated simultaneously with the display corresponding to the actual movement of the weights to enable the exerciser to compare actual form with the preferred form while using the exercise machine.

11. An exercise information system for use with exercise machines requiring an exerciser to raise and lower weights contained with the machine, the system comprising: means for monitoring the movement of the weights as the exerciser raises and lowers the weight; means for counting the total number of times an exerciser has raised and lowered the weights and displaying such information to the exerciser.