JP2004192632A - Race watching system - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a race watching system that increases interest in sports and races by delivering, in a sport or race, real-time biological signals of players or animals to a spectator via an information delivery medium. <P>SOLUTION: In a race or sport, a biological signal detection system can use biological signal detectors mounted on players or animals to detect biological signals, transmit detected data from first radio communication units, and deliver the data received by a transceiver on a second radio communication unit, over the TV or Internet. The application of the biological signal detection system can be thus extended to the world of sports and races. Spectators can know conditions and tensions of players or animals in real time. <P>COPYRIGHT: (C)2004,JPO&NCIPI

Description

  The present invention relates to an information distribution medium for distributing information such as various past results, wins and losses, and scores of players through the Internet, a television, and the like in sports, watching games, and the like.

  As a conventional technique related to a biological signal detector, a biological signal such as an electrocardiogram is detected by a detector worn on the body, the detection signal is wirelessly transmitted, and the receiving section receives the detection signal. By doing so, there is a technique for recording a biological signal for a long time (for example, see Patent Document 1).

  In addition, as a system that utilizes the Internet or the like in watching sports, a spectator expects a game result, a score, or the like before a sports game, and totals the predicted data via the Internet or the like. Furthermore, there has been a technique for increasing the entertainment of a game by distributing and comparing the calculated expected result and the actual result with a specific distribution device (for example, see Patent Document 2).

  Further, there has been a system for distributing the latest odds data of each race to customers via printed matter in real time (for example, see Patent Document 3).

In addition, in horse racing, there has been a system that predicts an expected approach course, a rank, and the like of a horse from past result data, and distributes the horse to a customer in real time via a printed matter (for example, see Patent Document 4).
JP-A-5-317278 JP 2000-339887 A JP-A-10-334153 JP-A-10-334154

  Conventionally, the biological signal detection system has the following problems.

  First, the biological signal detection system has been widely used in medical and healthcare fields, and has little application in other fields. Therefore, as a purpose of expanding the range of application, there was no expectation for the market expansion of the biological signal detection system which enhances entertainment.

  Second, in the field of sports and competition information distribution media, there were the following problems. Data on athletes and horses distributed in sports and competitions are limited to the results of expected wins and losses, past performances of athletes, etc. It was not distributed and distributed in real time as data. Therefore, even if the spectator watches the game on a television or the like, there is no way to know the condition of the player during the game.

  Third, past data, such as past results and rankings, are limited as materials for spectators when estimating winning or losing or ranking in sports or sports. Therefore, when estimating the results, it was difficult to consider the conditions of the players on the day, and it was difficult to accurately predict the results.

  Therefore, an object of the present invention is to further expand the application range of the biological signal detection system. Furthermore, in sports and competitions, biometric signals of players and animals are distributed in real time to spectators via an information distribution medium to enhance the recreational nature of sports and competitions, thereby further attracting spectators. Aim.

  In the present invention, in a sports competition, a biological signal detector for detecting a biological signal to an athlete or an animal and a first wireless communication device for transmitting the biological signal are attached to the body of the athlete in order to further enhance amusement. I decided to. Furthermore, a second radio communication device-side transceiver that receives the transmitted biological signal and a biological signal distribution unit that distributes the received biological signal to a biological signal distribution medium such as a television or the Internet in real time are provided.

  With the above-described configuration, in watching a sporting event, a biological signal of an athlete or an animal during the game is transmitted from the first wireless communication device to the second wireless communication device side and the condition during the game is transmitted to the distribution medium. Is delivered.

  Spectators can watch the conditions of the players in the competition in real time while watching the game. Further, the spectator can refer not only to past data but also the current player's condition, tension and the like in predicting the game result before the game starts.

  Further, the application of the biological signal detector, which has been widely used in the medical field, will be widespread.

  ADVANTAGE OF THE INVENTION According to this invention, it becomes possible to enjoy a sport further by presenting conditions, such as a player's and an animal's tension | tensile_strength, to a spectator in watching a sports game in real time.

  In a sports competition, it is possible to further enjoy the race by presenting the conditions of the players, the state of the engine, and the like to the spectators in real time. In addition, the number of judgments for estimating the order of the race is increased, and the order of the race can be enjoyed.

  In betting such as horse racing and auto racing, by presenting the biometric information of athletes and horses before a race, the information for estimating the ranking of racehorses increases, and it is possible to further enjoy the prediction of horse racing rankings. I can do it.

  FIG. 1 is a configuration diagram showing a system configuration of the present embodiment in a sports competition. FIGS. 2A and 2B are diagrams of a terminal 10 which is a part of the system of the present embodiment. It is a block diagram which shows a basic structure.

  The flow of a signal from detection of a biological signal to distribution to the biological signal distribution medium 14 will be described below with reference to FIGS. 1, 2A, and 2B.

  In FIG. 1, a terminal 10 is attached to each of a plurality of players of a sports competition or the body of an animal 11 to measure a biological signal, and different identification numbers are respectively assigned to the plurality of terminals 10. I have. At this time, the position at which the terminal device 10 is worn is not limited to the wrist but at a position where a desired biological signal can be detected, such as a waist, a head, a neck, and an ankle, and at a position where the movement of the player or the animal 11 is not hindered. It does not matter if it is attached. Furthermore, the number of terminals 10 to be attached to each player or animal 11 may be plural.

  Next, a flow from detection of a biological signal in the terminal device 10 to transmission of the biological signal to the second wireless communication device 12 will be described with reference to FIG. FIG. 2A is a diagram illustrating a basic configuration of the terminal device 10 attached to a plurality of players or the body of the animal 11. In FIG. 2A, a biological signal detected by a first biological signal detector 151 and a second biological signal detector 152 is amplified by an amplifier 16 and then converted into a DC voltage. There is no problem even if the first biological signal detector 151 and the second biological signal detector 152 are separated into two as shown in FIG.

  The biological signals detected by the first biological signal detector 151 and the second biological signal detector 152 include a pulse, a heart sound, a respiratory sound, an amount of sweat, an amount of lactic acid in the body, a muscle elasticity, an electroencephalogram, and behavior information. .

  As a method of measuring the pulse, a near-infrared method or an ultrasonic method can be considered. In both cases, a detector is attached to a belt attached to an arm or the like. The near-infrared method irradiates near-infrared light to the skin surface, detects transmitted light or reflected light with a light-receiving element, and uses the fact that the transmitted or reflected light changes depending on the blood flow flowing to the measurement site. There is a method of converting changes in blood flow into electrical signals. In the ultrasonic method, when an ultrasonic wave is transmitted toward an artery and its reflected wave is received by a receiving element, changes in the frequency and phase of the reflected wave can be detected. Since the surface of the artery approaches the transmitting source and the receiving element, the frequency increases due to the Doppler effect. Conversely, the frequency decreases while the artery is contracted. There is a method that can detect a pulse wave by detecting a change in the frequency or phase, and further detect a pulse rate or a blood flow velocity.

  By attaching a microphone at a position where the heart sound and breathing sound of the player can be detected, the heart sound and breathing sound can be detected. By detecting the athlete's heart sound and breathing sound, it is possible to indirectly know the athlete's degree of fatigue and tension.

  Regarding the method of measuring the amount of perspiration, it is possible to measure using a property that a substance having a high water absorption such as a sponge, when a lot of sweat is sucked, the electric resistance value between certain two points decreases . By attaching the sponge directly to the skin and measuring the resistance between two points on the sponge, the amount of sweating of the athlete can be measured. If you sweat a lot and the sponge contains a lot of sweat, the resistance value between two points on the sponge decreases due to the sweat, and the amount of sweating can be quantitatively measured. By measuring the state of local sweating on the player's palm or forehead, it can be used as a guide for the player's tension, exercise amount, and the like.

  With respect to the method of measuring the degree of fatigue, it is possible to indirectly measure the degree of fatigue of the athlete by measuring the amount of lactic acid by utilizing the property that lactic acid in the body increases during fatigue. Regarding the non-invasive measurement method of lactic acid amount, a light receiving element and a light emitting element are provided on a belt attached to the arm etc., the light emitting element irradiates toward the blood in the body, and the reflected light is reflected by the light receiving element. A detection method and an enzyme electrode method are known as one of the methods for measuring the amount of lactic acid. In this measurement method, there is a method of calculating the amount of lactic acid using an output signal from a light receiving element using FTIR (Fourier transform infrared spectrophotometer), near infrared spectroscopy, and near infrared transmitted and scattered light. FTIR is a method of detecting the amount of lactic acid based on the property that when a substance is irradiated with infrared light, molecules constituting the substance absorb infrared light at a specific wavelength. The near-infrared spectroscopy is a method of measuring the vibrational spectrum of molecules by irradiating near-infrared rays to measure the amount of lactic acid. The near-infrared transmitted scattered light measurement method is a method of measuring the amount of lactic acid by detecting the intensity of light at a measurement wavelength that is absorbed by lactic acid from light transmitted and scattered through a living body. Regarding the invasive measurement method, there is a method of directly measuring the amount of lactic acid by collecting blood when the athlete takes a break.

  With respect to another method of measuring the degree of fatigue, it is possible to measure the degree of fatigue of a player by measuring the muscle elasticity using the property of muscle stiffness during muscle fatigue. In the present embodiment, a method is used in which the elasticity of the muscle is measured by a piezoelectric sensor attached to the muscle of the player and the degree of muscle fatigue of the player is measured.

  Regarding the EEG measurement, there are largely a unipolar derivation method and a hyperbolic derivation method. The unipolar derivation method is a method in which an earlobe is used as a reference electrode, a search electrode is mounted on the scalp, and a potential difference from the reference electrode is measured. The hyperbolic derivation method is a method of mounting a plurality of pairs of search electrodes on the scalp and measuring a potential difference. With the latter method, it is possible to measure the local EEG by canceling the EEG generated in a wide area in the brain.

  Regarding a method of measuring the behavior information, there is a detection method using a piezoelectric sensor worn on the body of the player. By attaching sensors to the players' feet, etc., you can determine the distance traveled by the players.

  In the present embodiment, for convenience, the biological signal to be detected is of two types: muscle elasticity and pulse signal. A method of measuring the muscle elasticity is as follows. A belt attached to a player's body has a piezoelectric sensor attached to the first biological signal detector 151 so that a constant pressure is applied to the muscle. The voltage is designed to be input to the amplifier 16. As the muscle fatigue increases, the muscle becomes stiffer and a higher pressure is applied to the piezoelectric sensor, and the output voltage of the piezoelectric sensor increases.

  Next, in the pulse signal measuring method, in the present embodiment, a near-infrared method is adopted, and a change in blood flow is converted into an electric signal. The pulse signal detected by the second biological signal detector 152 adopting the near-infrared method is input to the amplifier 16. Since the pulse rate rises during tension or after intense exercise, it is possible to indirectly know the degree of tension of the player by measuring the pulse rate.

  The output of each biological signal amplified by the amplifier is AD-converted by the AD converter 17 at a predetermined sampling frequency. At this time, if necessary, a noise removing filter may be provided on at least one of the input side and the output side of the amplifier 16. Further, the amplifier 16 may be omitted if not necessary, due to the characteristics of the biological signal detector 15 and the AD converter 17. Subsequently, the AD-converted biological signal is input to the CPU 22. In the present embodiment, the communication method between the CPU 22 and the AD converter 17 is serial communication, but other communication methods such as parallel communication may be used. Further, a configuration in which the AD converter 17 is incorporated in the CPU 22 may be used. Next, the CPU 22 creates a data file based on the identification number of the terminal device 10 and the input two types of biosignals, and periodically updates the data file. Subsequently, the CPU 22 sends a new data file to the first wireless communication device 18 each time the data file is updated. Further, the first wireless communication device 18 transmits the received data file to the second wireless communication device 12 one after another.

  In the present embodiment, the wireless communication method is based on the TDMA method (time division multiple access), and the transmission frequencies of the terminals 10 are set to the same frequency. Upon receiving the data file, the second wireless communication device 12 transmits the data file at a predetermined timing in accordance with a predetermined frequency, and sets the data file so as not to overlap with a signal transmitted from another terminal 10. Have been.

  Next, the flow of the biological signal transmitted from the terminal device 10 will be described with reference to FIG.

  The data file transmitted from the plurality of players or the terminal device 10 attached to the animal 11 is received by the second wireless communication device 12. The received signals are separated by time so that signals from different terminals 10 do not overlap. Next, the CPU 13 connected to the second wireless communication device 12 detects the data file from the received signal and decodes the identification number and the biological signal. Subsequently, biometric signal data for each player or animal 11 corresponding to the identification number of each terminal 10 is created. Further, the data is converted into data in a predetermined distribution format that is easy for a spectator to see, and the data is distributed to the biometric information distribution medium 14.

In the present embodiment, as the display format of the biometric signal data on the biometric information distribution medium 14, there is a display format as shown in FIGS. In FIGS. 3, 4, and 5 (a), a game such as a soccer game can be displayed in real time through a biometric information distribution medium 14 such as a television or the Internet. Has become. In these display examples, the degree of fatigue is defined as 0 for the output of the piezoelectric sensor attached to the body of the player before the game, and 100 for the output of the piezoelectric sensor when the muscles become stiffest and hardest in past exercises and games. , The output of the piezoelectric sensor is displayed. This value is designed to increase when muscles are tired and stiff. The viewer can simultaneously watch the photograph data 36 of the player, the pulse information 37, the muscle fatigue degree 38 of the player, and the live broadcast 35 of the game as shown in FIG. Also, as shown in FIG. 4, the photograph data 36 of all the players, the pulse information 37 during the game, and the muscle fatigue degree 38 of the players can be viewed. In FIG. 5A, in a race such as a horse race, photograph data 36 of a horse and a jockey, pulse information 37, and a muscle fatigue degree 38 can be displayed on the biological information distribution medium 14. By doing so, those who buy betting tickets and betting can know the conditions of race horses and jockeys before the race on the day and increase the material for predicting the ranking of race horses etc. Become.
Furthermore, it is also possible to transmit the heart sounds and breath sounds of the players to the Internet or the like.
As shown in FIG. 5 (b), it is also possible to view the zoomed-up player's image 39, the player's photograph data 36, the pulse information 37, and the muscle fatigue degree 38 of the player who has become excited because the heart rate has risen as shown in FIG. It becomes possible.

  Examples of the biometric information distribution medium 14 in the present embodiment include a large screen of a stadium, the Internet, recording paper, a television, a radio, and a screen on a mobile phone. In this manner, the spectator can view the biometric information of each player via various biometric information distribution media 14. A spectator can see the player's biological information during the game and know the player's condition, such as the degree of tension and fatigue, in real time, and can further enjoy the game. It is also possible to distribute past information of players.

  As described above, by using the biological signal detection system of the present embodiment, it is possible to know the condition in real time via the biological information of the player or the animal 11 before and during the game and throughout the game.

  In the present embodiment, sports competitions include ball games such as rugby, soccer, baseball, water polo, football, marathon, wrestling, swimming, marathon, boxing, karate, judo, kendo, aikido, athletics, triathlon, etc. Sports, martial arts, races such as horse racing, bicycle racing, boat racing, auto racing, and races such as F1.

  Although the TDMA method is selected as the transmission method in the present embodiment, the CDMA method, the FDMA method, etc., which are other multiple accesses, and the biological signal transmitted from each terminal 10 Any method can be used as long as the communication method can be used for reception.

  The configuration of the present embodiment is different from the best mode for embodying the invention with terminal device 10, and other configurations are the same as the best mode for embodying the invention.

  Hereinafter, this embodiment will be described in detail with reference to FIG. FIG. 6 is a diagram illustrating a basic configuration of the terminal device 10 according to the embodiment. In the present embodiment, the flow from the detection of a biological signal to the input to the CPU 22 is the same as the best mode for carrying out the invention. However, the terminal 10 of the present embodiment is a system that can detect other additional signals other than the biological signal. Additional signals include baseball, soccer, etc., the speed of the ball, the video of the entire game, the image signal seen by the player, the position information signal of the player, the auto race, the engine temperature, the number of revolutions in F1, etc. Status signals such as pressure, exhaust temperature, and gasoline mixture ratio can be considered. The pressure in the cylinder can be measured by a pressure sensor or the like mounted in the cylinder. The exhaust temperature can be measured by attaching a thermometer to the exhaust port coming out of the cylinder. Further, the gasoline mixture ratio can be measured by the amount of gasified gasoline entering the cylinder.

In the present embodiment, for simplicity, the additional signal is image data seen by a player. In FIG. 6, the image data detected by the additional signal detector 23 is connected directly to the CPU 22. Depending on the type of the signal, appropriate processing such as amplification, AD conversion, and filtering is performed and the signal is input to the CPU 22. The CPU 22 creates a data file based on the biological signal, the additional signal, and the identification number of the terminal 20. Subsequently, the data file is transmitted from the first wireless communication device 18 to the second wireless communication device 12, similarly to the best mode for carrying out the invention. The flow from the second wireless communication device 12 to the distribution to the biometric information distribution medium 14 is the same as the best mode for carrying out the invention. As shown in FIGS. 7 (a) and 7 (b), two terminals, a biological signal detecting terminal 24 for detecting a biological signal and an additional signal detecting terminal 18 for detecting an additional signal, are provided. The configuration may be divided into two.
As described above, by distributing signals other than the biological signal, the image of the camera attached to the player and the biological signal of the entire game can be simultaneously viewed. FIG. 8 simultaneously displays the player's photographic data 36, the pulse information 37 during the game, the muscle fatigue degree 38, as well as the player's biological signal and the image 40 visible from the player on the biological information distribution medium 14 such as a television or the Internet. FIG. Also, in FIG. 9, in a race such as F1 or auto racing, the biometric information distribution medium 14 displays not only the athlete's photograph data 36, the pulse information 37 during the race, the muscle fatigue degree 38 but also the past results 41 of the athlete, The current position information 43 and the state 42 of the car, such as the number of engine revolutions on which the player is riding, are displayed on the biometric information distribution medium 14 so that they can be viewed during the race.
As described above, by using the system of the present embodiment, in a sport such as soccer, the game can be further enjoyed by watching the game with the player's eyes. In F1 and auto racing, you can know the status of the running car's engine and driver and the location of the car in real time. Therefore, the spectators can further enjoy the race.

  The present embodiment has a configuration in which a processing means 20 is added to the above basic configuration. Hereinafter, the present embodiment will be described in detail with reference to FIG.

  In the present embodiment, an electroencephalogram is added as a new biological signal. EEGs detected by EEG detectors are generally classified as δ-waves of 4 Hz or less, θ-waves of 4-8 Hz, α-waves of 8-13 Hz, and β-waves of 13 Hz or more. If the θ wave can be detected, it can be understood that the player feels drowsy, if the α wave can be detected, the player is relaxing, and if the β wave can be detected, the player is in an excited state.

  The biological signal including the brain wave transmitted from the terminal 10 is received by the second wireless communication device 12, and the identification number and the biological signal are confirmed. Subsequently, the brain wave signal output from the second wireless communication device 12 passes through the processing means 20 which is a digital filter. The brain waves that have passed through the processing means 20 are designed so that signals are output when outputs of frequencies corresponding to the frequencies of the α-wave and β-wave are detected. Next, FIG. 11 is designed to monitor a player's brain wave on a screen such as the Internet or a cable TV, and to turn on a lamp when an α wave or β wave is detected. As described above, since the α wave and the β wave can be detected in the brain wave of the player, it is possible to know whether the player is nervous or relaxed. In the present embodiment, signals other than brain waves are designed so that nothing is processed.

  11 and 13 show, in a race such as soccer or F1, a brain wave 44 is displayed on the biological information distribution medium 14 together with information such as a pulse and a degree of fatigue of a player during a game. Furthermore, the processing means 20 is designed so that α waves and β waves can be detected from brain waves, so that it is possible to know the player's tension during the game.

  In FIG. 12, an electroencephalogram 44 is displayed on the biometric information distribution medium 14 together with information such as pulse information 37 of a jockey or horse before a race such as a horse race, muscle fatigue degree 38, and the like. Furthermore, it is designed so that the α wave and the β wave can be detected through the processing means 20, and it is possible to know the tension of the players and horses before the game. Knowing the detailed status of horses and jockeys before the race will be a useful decision source before buying a betting ticket.

  FIG. 14 shows that the α wave and the β wave are detected by the processing means 20 from the brain wave of the player as well as the pulse information 37 and the muscle fatigue degree 38 of the player during a game such as soccer on the biological information distribution medium 14 such as the Internet. Thus, whether or not the player is in an excited state can be detected and displayed.

  In FIG. 15, it is also possible to display an image of a player who is in an excited state while looking at the state of the brain waves and displays a video 39 of the zoomed-up player.

  In the present embodiment, a billing means 19 is added to the best mode for carrying out the invention, the first embodiment and the second embodiment. The system of the present embodiment is a system capable of distributing a biological signal, a processed signal of a biological signal, an additional signal, a processed signal of an additional signal, and the like only to the distribution registrant 30 who paid in advance.

  Embodiment 2 will be described below in detail with reference to FIG. FIG. 16 is a diagram in which a charging unit 19 is further incorporated in the configuration described in the first embodiment. There is no difference between the best mode for carrying out the invention and the second embodiment in the configuration of the terminal device 10. The accounting unit 19 includes a database registration terminal 26, a distribution registrant database 27, and a distribution destination selection unit 21. The distribution registrant 30 selects information to be distributed and registers it from the database registration terminal 26. As a registration method, there are a method of performing registration on the Internet and a method of applying by telephone or facsimile.

  When registering from the Internet, the distribution applicant accesses the website designated by the system operator on a PC and enters a login name and a password decided by himself. In FIG. 16, the database registration terminal 26 is a portable terminal such as a PC or a mobile phone at home. Next, the distribution applicant selects the biometric information desired to be distributed, and then inputs the credit card number, time limit, and name from the Internet, and the registration is completed. FIG. 17 is an example of a registration screen on the Internet. The distribution registrant 30 inputs a login name 45 and a password 46 from the Internet, selects desired biometric information with a distribution information selection button 50, inputs credit card information 47 and a name 49, and presses a registration button 48. , It is designed to complete registration. Next time, when a distribution is desired, a login name and a password are input from a terminal such as the Internet, and the biometric information selected last time is distributed to the biometric information distribution medium 14 such as the Internet of the distribution registrant 30. Become.

A specific example of the distribution registrant database 27 will be described with reference to FIG. FIG. 18 is a table showing the contents of the distribution registrant database 27 when distributing biometric information over the Internet or the like. Information on the distribution registrant 30 is to be registered in the distribution registrant database 27 at the time of registration of biometric information distribution. The specific registration contents shown in FIG. 18 are a name 49, a password 46, a login name 45, credit card information 47, a customer ID 52, distribution contents 51, and the like.
The setting of the biometric information to be distributed can be changed depending on the fee course registered for each game or race.

  Next, at the time of F1 or sports watching, the distribution destination is selected by the distribution destination selecting means 21 based on the information of the distribution registrant database 27, and biometric information distribution that allows viewing of the player's biometric information and additional information. Distribution to the medium 14 is possible. As described above, the distribution registrant 30 of the distribution registrant database 27 can further enjoy sports and the like while viewing desired information at the time of viewing. In a race such as a horse race, the distribution registrant 30 pays money, so that the material for estimating the rank of the race horse increases.

  The billing method is a system in which the credit company 31 withdraws from the bank 29 in which the distribution registrant 30 has received money based on the information in the distribution registrant database 27 and remits it to the system manager.

  As another charging means 21, a system may be adopted in which only paying spectators are gathered at a predetermined facility, and biometric information and additional information are distributed together with the game relay on a large screen. Further, a method of distributing biometric information or additional information only to a person who paid in advance by cable television or the like may be used.

BRIEF DESCRIPTION OF DRAWINGS FIG. 1 is a diagram illustrating a configuration diagram of an entire system according to a first exemplary embodiment and a first exemplary embodiment of the invention. FIG. 1 is a diagram illustrating a configuration of a terminal according to an exemplary embodiment of the present invention; It is an example of a display of a living body information distribution medium in the best mode for carrying out the invention. It is an example of a display of a living body information distribution medium in the best mode for carrying out the invention. It is an example of a display of a living body information distribution medium in the best mode for carrying out the invention. FIG. 2 is a diagram illustrating a configuration diagram of a terminal according to the first embodiment. FIG. 2 is a diagram illustrating a configuration diagram of a terminal according to the first embodiment. 5 is a display example of a biological information distribution medium according to the first embodiment. 5 is a display example of a biological information distribution medium according to the first embodiment. FIG. 13 is a diagram showing a configuration diagram of an entire system according to a second embodiment. 13 is a display example of a biological information distribution medium according to the second embodiment. 13 is a display example of a biological information distribution medium according to the second embodiment. 13 is a display example of a biological information distribution medium according to the second embodiment. 13 is a display example of a biological information distribution medium according to the second embodiment. 13 is a display example of a biological information distribution medium according to the second embodiment. FIG. 13 is a diagram showing a configuration diagram of an entire system according to a third embodiment. FIG. 14 is a diagram showing an example of a registration screen on the Internet according to the third embodiment. 146 is a diagram illustrating an example of a distribution registrant database in Embodiment 3. [FIG.

Explanation of reference numerals

DESCRIPTION OF SYMBOLS 10 Terminal device 11 Player or animal 12 Second wireless communication device 13 CPU
Reference Signs List 14 biological information distribution medium 15 biological signal detector 151 first biological signal detector 152 second biological signal detector 153 third biological signal detector 16 amplifier 17 AD converter 18 first wireless communication device 19 billing means 20 Processing means 21 Delivery destination selection means 22 CPU
23 Additional Signal Detector 24 Biological Signal Detection Terminal 25 Antenna 26 Database Registration Terminal 27 Distribution Registrant Database 28 System Operator 29 Bank 30 Distribution Registrant 31 Credit Company 32 Flow of Money from Distribution Applicant to Bank 33 Bank Money flow to the credit company 34 Money flow from the credit company to the system operator 35 Live broadcast of the game 36 Photo data 37 of the player 37 Pulse information 38 Muscle fatigue 39 Image of the player zoomed in 40 Video 41 seen by the player Past results 42 Car status 43 Location information 44 EEG 45 Login name 46 Password 47 Credit card information 48 Registration button 49 Name 50 Delivery information selection button 51 Delivery content 52 Customer ID

Claims (9)

One or more biological signal detectors for detecting a biological signal of an athlete or a sports animal;
A first wireless communication device that wirelessly transmits the biological signal detected from the biological signal detector,
A second wireless communication device that receives the biological signal transmitted from the first wireless communication device,
A competition viewing system having information distribution means for distributing the biological signal from the second wireless communication device to an information distribution medium. Having one or more additional signal detectors to detect additional signals other than biological signals,
Transmitting the additional signal from the first wireless communication device,
Receiving the additional signal transmitted from the first wireless communication device in the second wireless communication device,
The at least one of the biological signal and the additional signal from the second wireless communication device is distributed to an information distribution medium, and the at least one of the biological signal and the additional signal is displayed. The competition viewing system according to 1. Processing means for processing at least one of the biological signal and the additional signal,
Distribute the processed signal to the information distribution medium,
The competition viewing system according to claim 1, wherein the information distribution unit displays the processed biological signal or the processed additional signal. Has a billing means,
A distribution destination selection unit that distributes at least one of the biological signal, the additional signal, the processed biological signal, and at least one of the processed additional signals to a person who has charged the fee. The competition viewing system according to any one of claims 1 to 3.   The biological signal according to any one of claims 1 to 4, wherein the biological signal is a pulse, an electroencephalogram, behavior information, blood pressure, heart sound, oxygen intake, carbon dioxide emission, body temperature, skin conductivity, and perspiration. Competition viewing system.   The competition viewing system according to any one of claims 2 to 4, wherein the additional signal is one of image data, position information, speed, engine information, and audio.   The said processed biological signal is any one of a player's or an animal's general condition, tension, physical strength, fatigue, an expected score, and an expected ranking. Competition viewing system described.   The competition viewing system according to claim 3, wherein the additional signal after the processing is a general condition of an engine. Detecting a biological signal of a player or an animal in a competition;
Transmitting the biological signal wirelessly,
Receiving the biological signal;
Delivering the received biometric signal to an information delivery medium.

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