WO2010140620A1

WO2010140620A1 - Monitoring device, monitoring system, condition evaluation system, and condition evaluation method for racehorses

Info

Publication number: WO2010140620A1
Application number: PCT/JP2010/059351
Authority: WO
Inventors: 隆司中田
Original assignee: 株式会社山城自動車教習所; 株式会社ウイング; 有限会社ウィル
Priority date: 2009-06-05
Filing date: 2010-06-02
Publication date: 2010-12-09
Also published as: JP2010282456A

Abstract

Provided is a means for easily monitoring and administering the physical condition and training of racehorses, and furthermore, a system in which the physical condition and training of racehorses can be grasped from places remote from the racehorses. A monitoring device for racehorses that can collect monitoring data of racehorses by having the monitoring device mounted on the racehorses, characterized in having: a movement detecting means that detects movement data of above-mentioned racehorses at a prescribed interval; a storing means that stores monitoring data including above-mentioned, detected movement-data; and a data transmitting means that transmits above-mentioned monitoring data stored in the storing means, to external places.

Description

Racehorse monitoring device, monitoring system, state evaluation system, and state evaluation method

The present invention relates to a racehorse monitoring device, a monitoring system, a state evaluation system, and a state evaluation method, and more particularly to a device, a system, and the like that allow a single administrator to monitor a racehorse managed at a remote location.

Racehorses of horse races are managed and trained by stable personnel such as trainers who operate the stables in the stables, as well as training assistants, training officers, and general staff, and run on the racetrack. Usually, trainers and training assistants (hereinafter referred to as “administrators”) are responsible for managing and training multiple racehorses per person, and training is performed in each course in the training center adjacent to the stable. It is done under the supervision of the administrator.

Currently, training centers are established in the Japan Central Horse Racing Association in two areas, the Kanto region and the Kansai region, while 10 racetracks are scattered throughout the country from Hokkaido to Kyushu.

Horse races are held on a predetermined schedule and are held every week at two or three of the ten locations. For example, during the summer season, it may be held simultaneously at the racetracks in Hokkaido and Kyushu. It is often done to stay in the stables prepared for the race, and to run on the race after training on the course of the racetrack.

As mentioned above, when a racehorse managed by the manager himself stays at the racetrack and trains, there may be cases where it is impossible to accompany the racetrack due to the relationship with other racehorses managed by himself / herself. , I often leave the racehorses to other managers, instruct them on management methods such as the training menu, and have them manage and train instead. Then, the administrator will receive information on the racehorse such as training actually conducted under other managers from other managers by telephone, fax, etc., and grasp the status of the racehorse. .

However, even if the administrator who has entrusted the racehorse is informed of the information about the racehorse, it may not be able to confirm that the information is true. It is difficult for the manager of the race horse to know the best, but it is difficult for the other managers of the surrogate to see the slight change of the race horse's gesture, slight change, serious injury such as race horse injury, breakdown etc. There is a risk of overlooking a sign that leads to a serious accident.

By the way, Patent Document 1 proposes a system that automatically collects information such as running time in a training center or racetrack course. In this system, a horse identification information display device and a position measurement / transmission device are attached to a racehorse, a passing signal detection device is installed at a predetermined point along the course, and the position measurement / transmission device and the position measurement / transmission device are installed. Based on the information collected from the passing signal detector, the position information for each running time is analyzed from the absolute position information of the racehorse start, the absolute position information of the course and the passing point, and the relative position information of the racehorses that run in parallel. A tracking information generation computer system that corrects and generates tracking information, organizes and records the generated tracking information with racehorse, race, course, riding jockey, and course status information, and distributes it in response to a distribution request It is comprised from a driving | running | working data management computer system.

JP 2003-296493 A

However, the above conventional information collection system is not only a racehorse, it is necessary to have the passing signal detectors scattered all over the course of the training center and the racetrack. It is premised on operation, and cannot be used easily by some administrators.

In addition, the above system can be used to measure the running time between passing signal detectors on the course, but the racehorses outside the course, such as in the stables after entering the course or after leaving the course It is not possible to collect information to know the state and state.

Furthermore, the above system is intended to automatically record the racehorse running time, and cannot monitor and manage the racehorse's physical condition and health.

An object of the present invention is to solve the above-mentioned problems and to provide means for easily monitoring and managing the physical condition and training of a racehorse. The purpose is to provide a system that can grasp training.

In order to achieve the above object, the present invention provides the following racehorse monitoring device, monitoring system, state evaluation system and state evaluation method (1) to (8).

(1) A racehorse monitoring device capable of collecting the racehorse monitoring data by being mounted on the racehorse, the motion detection means for detecting the racehorse motion data at a predetermined period, A racehorse monitoring apparatus comprising: storage means for storing monitoring data including the operation data; and data transmission means for transmitting the monitoring data stored in the storage means to the outside.

According to the racehorse monitoring apparatus of (1), it is possible to collect the operation data of the part worn by the racehorse at a predetermined cycle (every fixed time) simply by being attached to the racehorse. If the monitoring data is transmitted to an external computer or the like by the data transmission means, desired processing and analysis such as output and evaluation of the monitoring data can be performed by the computer. For example, it is possible to know a change in the operation of the racehorse as data.

In the present invention, the motion detection means detects movement of a part such as a head and a leg of a racehorse as data in time series. Specifically, for example, a known angular velocity sensor or acceleration sensor is used. Etc. can be used.

In the present invention, the data transmission means may be either wireless or wired, and in the case of wireless, for example, infrared transmission, near field communication means such as Bluetooth (registered trademark), the Internet is used. Wide area communication means or the like can be used. When using a wide area communication means such as the Internet network, the monitoring data can be confirmed even at a remote place. Further, the storage means may record a predetermined amount of collected monitoring data, or may temporarily store the monitoring data until it is transmitted to the outside.

Furthermore, the racehorse monitoring device of the present invention may be provided with a clock means for measuring time, whereby the monitoring data can be managed and analyzed in time series together with the time data. Moreover, since it uses mainly outdoors, it is preferable to provide a waterproof function.

(2) The racehorse monitoring apparatus according to (1), further including position detection means for detecting the position data of the racehorse at a predetermined cycle, wherein the monitoring data includes the position data.

According to the racehorse monitoring device of (2), it is possible to detect motion data and position data continuously at a predetermined timing. It is not always necessary to detect (measure) the operation data and the position data at the same timing. The monitoring data including the detected operation data and position data is temporarily stored in the storage means, for example, and transmitted to an external computer sequentially, and the monitoring data is accumulated and recorded together with the reception time in the computer. For example, it is possible to know where, at what speed the racehorse runs, what speed changes, and what actions it performs, and evaluates the racehorse status and changes in status in terms of data. In addition to judging, it is possible to know the contents of training even in a remote place.

(3) It has a reading means for reading horse identification data from a horse identification device mounted on the racehorse, and the monitoring data includes the horse identification data. ) The racehorse monitoring device described in the above.

Currently, all horses registered for racehorses are equipped with chips that store horse identification data. According to the racehorse management device of (3) above, by mounting on a racehorse, horse identification data (ID) can be read from the chip, and monitoring data can be transmitted to the outside together with the horse identification data. Data management and monitoring can be performed without the need to input racehorse identification information.

(4) A monitoring device that can collect monitoring data of the racehorse by being attached to the racehorse, and the monitoring data that is attached to the racehorse or a jockey riding on the racehorse and collected by the monitoring device. A racehorse monitoring system comprising: a recording device for recording the racehorse, wherein the surveillance device stores motion detection means for detecting motion data of the racehorse in a predetermined cycle, and monitoring data including the detected motion data. Data receiving means for receiving the monitoring data transmitted from the data transmitting means of the monitoring apparatus, the storage means for transmitting the monitoring data stored in the storage means to the outside Means for measuring time, data recording means for recording the monitoring data received by the data receiving means in relation to the time by the time measuring means, and Racehorse monitoring system characterized in that it has a data transfer means for transferring the data recorded by the data recording means to the outside.

According to the racehorse monitoring system of (4), the monitoring device that collects the monitoring data and the recording device that records the monitoring data collected by the monitoring device are separated. The monitoring device can be reduced in size, and even if this is mounted on, for example, the leg of a racehorse, the burden on the racehorse and the sense of incongruity can be reduced. In addition, the recording apparatus can be mounted on a portion with little movement, and the breakdown and damage of the recording apparatus can be prevented.

(5) The apparatus according to (4), further comprising position detection means for detecting position data of the racehorse at a predetermined cycle, wherein the data recorded by the data recording means of the recording device includes the position data. The racehorse monitoring system described in 1.

According to the racehorse monitoring system of (5), the same effect as the monitoring device of (2) can be obtained.

(6) The monitoring device or the recording device has reading means for reading horse identification data from a horse identification device mounted on the racehorse, and the data recorded by the data recording means of the recording device includes The racehorse monitoring system according to (4) or (5), wherein the horse identification data is included.

(6) According to the racehorse monitoring system of (6), the same effect as the monitoring device of (3) can be obtained.

(7) Motion detection means for detecting motion data of a wearing part at a predetermined cycle by mounting on a racehorse, storage means for storing standard motion data indicating a normal state of the racehorse, and detected by the motion detection means A racehorse state evaluation system comprising: an evaluation unit that evaluates the state of the racehorse by comparing operation data with the standard operation data; and an output unit that outputs an evaluation result by the evaluation unit.

(7) According to the racehorse condition evaluation system of (7), it is possible to evaluate the breakdown, injury, health condition, etc. of the horse based on objective data. Of course, a racehorse failure or injury mainly occurs in the leg, and if the leg is painful, it is considered that the part covers the part. Therefore, for example, by detecting the motion data of the four legs of the racehorse and evaluating the detected motion data, it is possible to detect which of the legs may be abnormal.

(8) A step of measuring the operation data of the mounting portion at a predetermined cycle by the operation detecting means mounted on the racehorse, and the standard operation data indicating the normal state of the mounting portion of the racehorse based on the operation data measured in the measurement step. And a state evaluation method for a racehorse having an evaluation step for evaluating the state of the racehorse based on the degree of difference between the motion data and the standard motion data as a result of the collation by the collation step.

According to the race horse state evaluation method of (8), the same effect as the state evaluation system of (7) can be obtained.

According to the present invention, management information such as racehorse training data and operation data can be collected as data by a simple device, system, etc., and racehorse training and management can be performed accurately. In addition, even when the manager is in a remote location away from the racehorse, the management information of the racehorse can be known in a timely and accurate manner. Can provide accurate management instructions and guidance.

It is a figure which shows the structure of the monitoring system of Embodiment 1 of this invention. It is a figure which shows the state which mounted | wore the racehorse with the monitoring apparatus of Embodiment 1 of this invention. It is a figure which shows the flow of operation | movement of the monitoring system of Embodiment 1 of this invention. It is a figure which shows the structure of the monitoring system of Embodiment 2 of this invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.

<Embodiment 1>
1 and 2, the monitoring system according to the first embodiment includes five

monitoring devices

10, 11, 12, 13, 14, a measurement control computer 20 and a GPS receiver 30 as measurement units. An analysis computer 40 is included as an analysis unit. Although not shown, the

monitoring devices

10, 11, 12, 13, and 14 and the measurement control computer 20 include a driving battery (battery).

Note that, here, the measurement control computer 20 and the analysis computer 40 are separate computers, but one computer may be provided with the functions of both. Further, a separate GPS receiver 30 may be used by being incorporated in a part or all of the

monitoring devices

10, 11, 12, 13, and 14 or a measurement control computer.

The

monitoring devices

10, 11, 12, 13, and 14 have a small resin case having an appearance of, for example, about 5 cm × 4 cm × 1 cm, and are mounted on each of the four legs and the head of the racehorse (see FIG. 2). ), Measuring movement data by detecting the movement of each part. The

monitoring devices

10, 11, 12, 13, and 14 include an angular velocity sensor 15, a transmission / reception unit 16, and the like, and each

monitoring device

10, 11, 12, 13, and 14 has identification data. The operation data of which part of the racehorse can be determined by the measurement control computer 20 and the analysis computer 40. Since the angular velocity sensor 15 is for detecting the movement of each part such as a leg portion of a racehorse, the angular velocity sensor 15 can be one that can detect an angular velocity of at least one axis. Although a biaxial angular velocity sensor or a triaxial angular velocity sensor can be used, it is preferable to use a triaxial angular velocity sensor in order to detect complicated movement of each part of the racehorse. Further, the angular velocity sensor 15 detects an angular velocity around a predetermined axis at a predetermined cycle such as 100 Hz (for every predetermined time). Further, the angular velocity data detected by the angular velocity sensor 15 is temporarily stored in a storage unit (buffer memory) such as a RAM or a ROM (not shown). Then, the transmission / reception unit 16 transmits the angular velocity data detected by the angular velocity sensor 15 to the measurement control computer 20 at regular time intervals or at a predetermined timing, for example. As the transmitter / receiver 16, for example, a short-range wireless communication unit such as Bluetooth (registered trademark) can be used.

The angular velocity sensor 15 is attached to a leg portion of the racehorse so as to detect at least an angular velocity according to rotation around the horizontal axis. For example, angular velocity data according to swinging (rotation) up and down and up and down of the leg portion of the racehorse. Can be measured. As for the detection direction of the angular velocity about the horizontal axis of the angular velocity sensor 15, the forward rotation is set to the positive direction, the backward rotation is set to the negative direction, and the positive angular velocity data is obtained when the legs of the racehorse are swung forward. Is detected and negative angular velocity data is detected when it is kicked back. Therefore, the measurement control computer 20 can determine what operation the racehorse has performed by analyzing the angular velocity data of the angular velocity sensor 15. The

monitoring devices

10, 11, 12, 13, and 14 can be attached to the racehorse using, for example, bandages such as bandages, supporters, Velcro (registered trademark), or the like.

The measurement control computer 20 is attached to a jockey or a racehorse, for example, the neck or torso to perform data measurement. Various computers can be widely used as the measurement control computer 20, but a small or portable computer such as a PDA (personal digital assistant) can be preferably used.

Although not shown, the measurement control computer 20 includes a CPU, a ROM, a RAM, a communication device, a data transfer unit, and the like. The ROM stores a control program and necessary data in advance. Used as a buffer memory, temporarily stores generated data, acquired data, and the like. The communication device transmits a control signal to the

monitoring devices

10, 11, 12, 13, and 14, or the

monitoring devices

10, 11, 12 , 13, 14, the operation data detected by the angular velocity sensor 15 transmitted by the transmission / reception unit 16, and the data transfer unit receives monitoring data (measurement data) received from the

monitoring devices

10, 11, 12, 13, 14. Are transferred to the analysis computer 40 via a dedicated cable. Note that when monitoring data or the like is transferred to the analysis computer 40 by wireless communication, it can be performed using a communication device, and a data transfer unit can be dispensed with.

The GPS receiver 30 is a position detection device for detecting the current position of the racehorse, and is mounted (carried) on, for example, a racehorse or a jockey. The GPS receiver 30 receives a signal from a GPS satellite, for example, at a predetermined cycle of 1 Hz (at regular intervals), calculates the coordinates (latitude, longitude, altitude) of the current location, and includes the coordinates of the current position Data is output to the measurement control computer 20.

The measurement control computer 20 records the angular velocity data received from the

monitoring devices

10, 11, 12, 13, and 14 and the position data received from the GPS receiver 30 as measurement data in a memory. In the angular velocity data and the position data, the angular velocity value and the coordinates are stored in association with the detection time or the acquisition time, respectively.

The recorded measurement data is transferred (transmitted) from the measurement control computer 20 to the analysis computer 40 and taken into the analysis computer 40. The measurement data may be taken into the analysis computer 40 via a storage medium. The analyzing computer 40 is for analyzing the measurement data, evaluating the training and state of the racehorse, and outputting the evaluation result. As the analysis computer 40, for example, a personal computer can be used. Although not shown, the analysis computer 40 includes a CPU, a ROM, a RAM, an HDD, a communication device, a data transfer unit, an input device, and the like, and an output device such as an image display device or a printer for outputting an evaluation result. It has. The ROM stores a control program (including an analysis program) and necessary data in advance. The RAM is used as a work memory and a buffer memory, and temporarily stores generated data and acquired data. The HDD records measurement data, analysis data, and the like. The communication device transmits and receives data to and from the measurement control computer 20.

In the analysis computer 40, normal operation data of each racehorse is stored in advance in the ROM or HDD as standard data. The measurement data is collated with this standard data to evaluate the racehorse status. At this time, these data are graphed, etc., and when there is a difference of more than a predetermined amount between them, a caution notice is given. It is preferable to give a warning notification when a message is seen.

It should be noted that horse identification data (ID) is read in a non-contact manner from some or all of the

monitoring devices

10, 11, 12, 13, 14 or an ID chip embedded in the horse body of the racehorse in the measurement control computer 20. If a reader is built in and this ID information is recorded and analyzed together with the measurement data by the measurement control computer 20 or the analysis computer 40, it is not necessary to separately input racehorse identification information.

In this embodiment, the angular velocity sensor is used to measure the operation data. However, an acceleration sensor may be used instead of or together with this.

Next, an example of the operation of the monitoring system according to the first embodiment will be described with reference to FIG.

First, data measurement is performed by the measurement control computer 20 (step S1). In a state where the

monitoring devices

10, 11, 12, 13, and 14 are mounted on the racehorse, they are synchronized, and for example, data measurement during training in a predetermined training course is performed. The angular velocity data of each of the

monitoring devices

10, 11, 12, 13, and 14 is sampled at, for example, 100 Hz, the position data of the GPS receiver 30 is sampled at, for example, 1 Hz, and the sampled angular velocity data and position data are measured and controlled. Recorded on the computer 20 at any time.

Next, when the training is finished and the data measurement is finished, the measurement control computer 20 is connected to the analysis computer 40 via a dedicated cable, and the measurement data is taken into the analysis computer 40 (step S2). This measurement data can be taken in after measurement is completed by communication via the Internet, and can be transferred at every measurement, at a predetermined timing, or by wireless transmission, and the measurement data is stored in a storage medium such as a memory card. The measurement data can be stored in the storage medium, and the measurement data can be read into the analysis computer 40 from the storage medium.

When the acquisition of the measurement data is completed, the analysis is performed by the analysis computer 40 (step S3). Here, the analysis is based on the measurement data taken in, analyzing when and where the course was run at what speed and acceleration, that is, which course was run with what lap, and the racehorse at that time Analyze how the four legs and the head have moved.

Next, based on the analyzed data, a racehorse name, a training course name, a training course image, a training time (time), a graph such as a broken line or a bar indicating a change in running speed with respect to distance (for example, every 1 halon), or A numerical value, a waveform indicating the behavior of each part of the racehorse corresponding to the data indicating the change in the traveling speed, and the like are displayed on the image display device of the analysis computer 40 (step S4). At this time, the waveform indicating the behavior of each part in the normal training (normal time) of the racehorse is displayed in a color different from the waveform indicating the behavior of each part of the racehorse based on the measurement data. In addition, when a big difference more than the predetermined has arisen in these superimposed waveforms, you may make it perform the display etc. which alert | report a warning and a warning to an administrator.

<Embodiment 2>
In the first embodiment, the measurement data measured by the monitoring device under the control of the measurement control computer is temporarily stored in the measurement computer, and the measurement data is transferred (read) to the analysis computer. However, in the second embodiment, an example will be described in which measurement data measured (detected) by a monitoring device is directly transmitted from the monitoring device to an analysis computer of a remote manager via the Internet.

Referring to FIG. 4, the monitoring system of the second embodiment includes five

monitoring devices

50, 51, 52, 53, and 54 as measurement units, and includes an analysis computer 80 as an analysis unit.

Of the five monitoring devices, four

monitoring devices

50, 51, 52, 53 are mounted on each of the four legs of the racehorse, and the remaining monitoring devices 54 are mounted on the head. The

monitoring devices

50, 51, 52, and 53 attached to the four legs of the racehorse include an angular velocity sensor 55-1, an acceleration sensor 55-2, a transmission / reception unit 56, and the like. The monitoring device 54 mounted on the head of the racehorse includes an angular velocity sensor 55, an acceleration sensor 55-2, a transmission / reception unit 56, a GPS reception unit 57, an ID reading unit 58, and the like. Each of the

monitoring devices

50, 51, 52, 53, 54 has a communication antenna and further has identification data. Based on this identification data, the analysis computer 80 can determine which part of the racehorse is operating. Further, a control program is stored in the monitoring device 54 mounted on the head, and the angular velocity sensor 55-1 and acceleration sensor 55-2 in the

other monitoring devices

50, 51, 52 and 53, and the own angular velocity sensor 55-. 1 and the acceleration sensor 55-2 are synchronized to start measurement and have a function for performing measurement control of the

monitoring devices

50, 51, 52, 53 mounted on the legs.

Each of the

monitoring devices

50, 51, 52, 53, 54 has a storage unit (buffer, not shown) such as a RAM or ROM that temporarily stores angular velocity data detected by the angular velocity sensor 55-1 and the acceleration sensor 55-2. Memory).

As the angular velocity sensor 55-1, the same one as the above-described angular velocity sensor 15 can be used under the same measurement conditions, and a well-known acceleration sensor can be widely used. The transmission / reception unit 56 transmits the angular velocity data and acceleration data detected by the angular velocity sensor 55-1 and the acceleration sensor 55-2 to the analysis computer 80 via the Internet 70 and a server (not shown) in synchronization with the measurement cycle, for example. .

Further, the monitoring device 54 mounted on the head incorporates a GPS receiving unit 57, and transmits the position data obtained thereby together with the angular velocity data from the transmitting / receiving unit 56 to the analyzing computer 80 via the Internet 70 and the server. Further, the monitoring device 54 has an ID reading unit 58 that reads an ID in a non-contact manner from an ID chip that stores horse identification data embedded in a racehorse. , 52, 53, and transmitted to the analysis computer 80 together with the measurement data, etc., and used for data identification.

The analysis computer 80 is a personal computer installed in the stable by an administrator such as a trainer, and receives angular velocity data, acceleration data, position data, received from the

monitoring devices

50, 51, 52, 53, and 54 via the server. The ID is recorded in the memory as measurement data. These data are stored in the server in association with the reception time, and the reception time data is included in the measurement data received by the analysis computer. Further, as the analysis computer 80, the same computer as the analysis computer 40 shown in the first embodiment can be used, and in addition, a portable notebook personal computer can also be used.

Although the embodiment of the present invention has been described above, in the monitoring apparatus of the present invention, a body temperature measuring sensor capable of measuring body temperature by further contacting the horse body, for heart rate measurement for measuring the heart rate of a racehorse A sensor is provided, and these data can be analyzed and evaluated together with other measurement data to be used for physical condition management of the racehorse. In addition, as a sensor for body temperature measurement and a sensor for heart rate measurement, a well-known thing can be used widely, for example, as a sensor for heart rate measurement, a pulse wave signal is detected from reflectance of a part of light of a horse, The pulse wave signal can be measured by removing an acceleration signal accompanying the operation of the racehorse measured by an acceleration sensor or the like.

Further, in the present invention, when an abnormality is recognized in the operation, physical condition, gesture, etc. of the racehorse by comparing the measured operation data and the normal time data, a monitoring device attached to the racehorse head, An abnormality may be immediately notified to the jockey using a measurement control computer (recording device) mounted on the racehorse or jockey. For example, normal time data is stored in a monitoring device, a recording device, etc., and an abnormality notification lamp is provided, analyzed and evaluated in the monitoring device or recording device, and the abnormality notification lamp is turned on when an abnormality is recognized. Alternatively, if it is made to blink, an abnormality is found in the racehorse and it can be immediately notified to the jockey, which is extremely effective in reducing and preventing accidents.

10, 11, 12, 13, 14, 50, 51, 52, 53, 54 Monitoring device 15, 55-1

Angular velocity sensor

16, 56 Transmitter / receiver 20 Measurement control computer 30 GPS receiver 55-2 Acceleration sensor 57

GPS reception

40, 80 Analysis computer 58 ID reader 70 Internet

Claims

A racehorse monitoring device capable of collecting monitoring data of the racehorse by attaching it to the racehorse,
Motion detection means for detecting motion data of the racehorse in a predetermined cycle;
A racehorse monitoring apparatus comprising: storage means for storing monitoring data including the detected operation data; and data transmission means for transmitting the monitoring data stored in the storage means to the outside.
2. The racehorse monitoring apparatus according to claim 1, further comprising position detection means for detecting position data of the racehorse at a predetermined cycle, wherein the monitoring data includes the position data.
The racehorse according to claim 1 or 2, further comprising reading means for reading horse identification data from a horse identification device mounted on the racehorse, wherein the monitoring data includes the horse identification data. Monitoring device.
A monitoring device that can collect monitoring data of the racehorse by attaching it to the racehorse, and a monitoring device that is attached to the racehorse or a jockey riding on the racehorse and records the monitoring data collected by the monitoring device A racehorse monitoring system comprising a recording device,
The monitoring device is
Motion detection means for detecting motion data of the racehorse in a predetermined cycle;
Storage means for storing the monitoring data including the detected operation data, and data transmission means for transmitting the monitoring data stored in the storage means to the outside,
The recording device is
Data receiving means for receiving monitoring data transmitted from the data transmitting means of the monitoring device;
Time keeping means for keeping time,
It comprises data recording means for recording the monitoring data received by the data receiving means in relation to the time by the time measuring means, and data transfer means for transferring the data recorded by the data recording means to the outside. A racehorse monitoring system.
The race according to claim 4, further comprising position detection means for detecting position data of the racehorse at a predetermined cycle, wherein the data recorded by the data recording means of the recording device includes the position data. Horse monitoring system.
The monitoring device or the recording device has reading means for reading horse identification data from a horse identification device mounted on the racehorse, and the data recorded by the data recording means of the recording device includes the horse 6. The racehorse monitoring system according to claim 4, wherein identification data is included.
Motion detection means for detecting motion data of a wearing part at a predetermined cycle by being mounted on a racehorse,
Storage means for storing standard operation data indicating the normal state of the racehorse;
State evaluation of a racehorse provided with evaluation means for evaluating the state of the racehorse by comparing the motion data detected by the motion detection means with the standard motion data, and an output means for outputting an evaluation result by the evaluation means system.
A step of measuring movement data of the mounting portion at a predetermined cycle by a movement detection means mounted on the racehorse, and collating the movement data measured in the measurement step with standard operation data indicating a normal state of the mounting portion of the racehorse A racehorse state evaluation method comprising: a collation step; and an evaluation step of evaluating a racehorse state based on a degree of difference between the motion data and the standard motion data as a result of collation by the collation step.