JP2020074835A - Golf diagnosis system - Google Patents

Abstract

To enable various types of information obtained at the time of golf diagnosis to be integrated and used multiply.SOLUTION: A golf diagnosis system comprises: a measuring apparatus for measuring a situation of a golfer performing trial hitting; a computer connected to the measuring apparatus; and an input terminal to be operated by the golfer and an operator. The input terminal accepts input of attribute information on the golfer from the golfer, generates a code uniquely associated with the attribute information on the golfer, uploads to a server the attribute information on the golfer and the code in connection with each other, and displays the code. The computer receives measured data from the measuring apparatus, accepts input of the code from the operator, takes the code as a key to download from the server the attribute information on the golfer associated with the code, creates a diagnosis result on the golfer's shot on the basis of the measured data and the attribute information on the golfer, and displays the diagnosis result.SELECTED DRAWING: Figure 4

Description

  The present invention relates to a golf diagnosis system.

  At golf equipment retailers, golf schools, and the like, a golfer tries to hit a golf club, and a specialized staff member (hereinafter, referred to as an operator) observes a shot at this time and makes a diagnosis. The diagnosis result can be used for various purposes, for example, it can be used by a golfer for future play, and can be used for selecting a golf club suitable for the golfer (so-called fitting). In such a diagnostic scene, as in Patent Document 1, a golfer's shot is measured by a measuring device such as a camera, and a computer displays the result of analyzing the golfer's shot based on the measurement data at this time, and the operator displays it. References are also often made.

  In the above-mentioned diagnosis scene, first, the golfer fills in a questionnaire with his / her age, sex, golf history, type of golf club currently in use, worries about his own play, and the like. The operator makes a diagnosis based on his own experience and knowledge in consideration of the contents of such inquiry, the analysis result by the computer, and the contents observed by himself. Then, the operator writes the diagnosis result in the diagnosis table and hands it to the golfer to complete the diagnosis.

JP, 2005-077246, A

  Conventionally, the information about the content of the inquiry, the analysis result by the computer, the observed content, the diagnosis result, and the like as described above has only been confirmed by the operator and the golfer on an ad hoc basis, and has not been centrally managed. That is, in the conventional golf diagnosis system, various kinds of information obtained during golf diagnosis are not sufficiently utilized in a composite manner.

  It is an object of the present invention to provide a golf diagnosis system that integrates various types of information obtained at the time of golf diagnosis so as to be utilized or can be utilized in a composite manner.

  A golf diagnosis system according to a first aspect is a golf diagnosis system connected to a server, and has a measuring device that collects measurement data that measures how a golfer tries to hit a golf club, and a first display. A computer connected to the measuring device, a second display, and an input terminal operated by the golfer and an operator who guides the golfer are provided. The input terminal receives an input of the golfer's attribute information from the golfer, generates a code uniquely associated with the golfer's attribute information, uploads the golfer's attribute information and the code in association with the server. , Displaying the code on the second display. The computer receives the measurement data from the measuring device, accepts the input of the code from the operator, using the code as a key, downloads the attribute information of the golfer associated with the code from the server, A diagnosis result of the shot of the golfer is created based on the measurement data and the attribute information of the golfer, and the diagnosis result is displayed on the first display.

  A golf diagnosis system according to a second aspect is the golf diagnosis system according to the first aspect, wherein the computer associates the measurement data with the code, or associates the measurement data with attribute information of the golfer. , Upload to the server.

  A golf diagnosis system according to a third aspect is the golf diagnosis system according to the first aspect or the second aspect, wherein the input terminal accepts input of observation information regarding a result of observing the golfer from the operator, and the observation is performed. The information and the code are associated and uploaded to the server. The computer, using the code as a key, downloads the observation information associated with the code from the server, adds the measurement data and the golfer attribute information, and further, based on the observation information, the diagnosis result. create.

  A golf diagnosis system according to a fourth aspect is the golf diagnosis system according to the third aspect, wherein the computer associates the observation information, the measurement data, and the attribute information of the golfer with each other and uploads them to the server.

  A golf diagnosis system according to a fifth aspect is the golf diagnosis system according to any of the first to fourth aspects, wherein the computer inputs club information about the golf club used for a trial hit of the golfer. Upon reception, the diagnosis result is created based on the club information in addition to the measurement data and the golfer attribute information.

  A golf diagnosis system according to a sixth aspect is the golf diagnosis system according to the fifth aspect, wherein the computer reads a code holding the club information via a reader device connected to the computer, Input of the club information is accepted.

  A golf diagnosis system according to a seventh aspect is the golf diagnosis system according to the fifth aspect or the sixth aspect, wherein the computer associates the club information, the measurement data and the code, or the club information, The measurement data and the golfer's attribute information are associated with each other and uploaded to the server.

  A golf diagnosis system according to an eighth aspect is a golf diagnosis system connected to a server, the measurement device collecting measurement data for measuring how a golfer tries to hit a golf club, and a computer connected to the measurement device. And an input terminal operated by the golfer and an operator who guides the golfer. The computer receives the measurement data from the measuring device, uploads the measurement data to the server, the input terminal receives an input of the golfer attribute information from the golfer, the server attribute of the golfer Uploading information, the server stores the measurement data and the golfer's attribute information in association with each other.

  A golf diagnosis system according to a ninth aspect is the golf diagnosis system according to the eighth aspect, wherein the computer accepts input of club information regarding the golf club used for a trial hit of the golfer, and the server receives the club information. The information is uploaded, and the server stores the measurement data, the golfer's attribute information, and the club information in association with each other.

  According to the first to seventh aspects of the present invention, various types of information including golfer attribute information and measurement data obtained at the time of golf diagnosis can be integrated in a computer and used in a composite manner.

  According to the eighth and ninth aspects of the present invention, various types of information including golfer attribute information and measurement data, which are obtained at the time of golf diagnosis, are integrated in a server so that they can be utilized in a composite manner. You can

The figure which shows the whole structure of the golf diagnosis system which concerns on one Embodiment of this invention. The block diagram which shows the electric constitution of the golf diagnosis system of FIG. The figure which shows the connection relationship of a golf diagnostic system and a server. The flowchart which shows the flow of the golf diagnosis process for fitting. The figure which shows an inquiry screen. The figure which shows an inquiry result screen. The figure which shows an analysis result screen. The figure which shows a 1st selection screen. The figure which shows a 2nd selection screen. The figure which shows a diagnostic result screen.

  Hereinafter, a golf diagnosis system according to an embodiment of the present invention will be described with reference to the drawings.

<1. Overall structure of golf diagnosis system>
FIG. 1 shows the overall configuration of a golf diagnosis system 100 according to this embodiment, and FIG. 2 shows its electrical configuration. The golf diagnosis system 100 is a system for analyzing various shots of the golfer G based on the measurement data when the golfer G hits the golf club 4 and supports various diagnosis concerning the golfer G. A specialized staff (hereinafter referred to as an operator) F makes a golf diagnosis while guiding the golfer G. Although not limited to this, the golf diagnosis system 100 of the present embodiment selects one or a plurality of golf clubs suitable for the golfer G from a large number of golf clubs, in other words, one or a plurality of golfers G. A system for assisting in fitting a book golf club. The operator F is suitable for the golfer G, which should be finally recommended to the golfer G, while observing how the golfer G makes a trial hit with one or a plurality of test golf clubs (hereinafter referred to as a test club) 4. A golf club (hereinafter referred to as a recommended club) is determined.

  The golf diagnosis system 100 includes an input terminal 6 operated by an operator F and a golfer G to input necessary items, and the input terminal 6 assists the interaction between the operator F and the golfer G. Further, the golf diagnosis system 100 further includes a measuring device 2 that measures how the golfer G tries to hit the test club 4, and a computer 1 that is connected to the measuring device 2 and that analyzes the measurement data collected by the measuring device 2. Including. The computer 1 analyzes the shot of the golfer G based on the measurement data, and displays the analysis result to the operator F and the golfer G. The operator F diagnoses the shot and advances the fitting while referring to the analysis result of the shot of the golfer G presented from the computer 1.

  Further, as shown in FIG. 3, the computer 1 and the input terminal 6 included in the golf diagnosis system 100 are connected to a server 8 on the Internet. The server 8 is a server that integrates and integrally manages various data collected by the golf diagnosis system 100, and includes a database 83 for storing various data. Although not shown, the server 8 is connected to a large number of golf diagnosis systems 100 installed in various places, and the database 83 accumulates various data collected from the large number of golf diagnosis systems 100.

  Hereinafter, the configuration of the test club 4, the measuring device 2, the computer 1, the input terminal 6, and the server 8 will be described, and then the flow of a golf diagnosis process for fitting performed using the golf diagnosis system 100 will be described.

<2. Structure of each part>
<2-1. Test club ＞
The test club 4 includes a shaft 40, a head 41 provided at one end of the shaft 40, and a grip 42 provided at the other end of the shaft 40, as in a general golf club. Although generally referred to as the test club 4, as the test club 4, various count golf clubs of various club types such as a driver, a fairway wood, a hybrid, and an iron are prepared. As the test club 4, a plurality of golf clubs having different models and different specifications are prepared even if the same club type and the same number are used.

  A code (hereinafter referred to as a club code) holding club information about the test club 4 is attached to a predetermined position of each test club 4. Although not limited to this, the club code of the present embodiment has the form of a two-dimensional barcode such as a QR code (registered trademark). This club code may be directly attached to the test club 4 in a form such as engraved or printed, or a tag to which the club code is attached such as engraved or printed may be attached to the test club 4. .. The club information here is, for example, specification information indicating the specifications of the test club 4, and the specification information here includes, for example, the model name of the head 41, the loft angle, the lie angle, the bounce angle, and the head 41. Contains information about at least one of weight, shaft 40 model name, shaft 40 flex, shaft 40 international flex code, shaft 40 torque, shaft 40 weight, grip 42 model name, and grip 42 weight. .. The international flex code represents the hardness (flex) at a plurality of predetermined places (typically, four places) along the longitudinal direction of the shaft 40 by a numerical value of 1 to 9, and the numerical values are combined and arranged. It is a four-digit number.

  The above club code is read by a scanner (reading device) 7 that can read the club code. The scanner 7 is connected to the computer 1, and the computer 1 acquires club information via the scanner 7.

<2-2. Measuring device>
The measuring device 2 is installed in a bat at P1 where a golfer G makes a trial hit at a specialized place such as a golf equipment store or a golf school, and measures a shot of the golfer G standing at the bat at P1. The measurement data measured by the measuring device 2 is transmitted to the computer 1 connected to the measuring device 2.

  As shown in FIG. 2, the measuring device 2 according to the present embodiment includes an inertial sensor unit 3 and a camera system 5. However, the configuration of the measuring device 2 is not limited to this, and is not particularly limited as long as it can measure the measurement data suitable for diagnosing the shot of the golf player G. The golfer G performs a trial hit of the test club 4 to which the inertial sensor unit 3 is attached, in the bat at P1 where the camera system 5 is left standing. A shot mat 58 is laid on the bat P1, and the golfer G makes a trial hit on the shot mat 58.

<2-2-1. Inertial sensor unit>
As shown in FIG. 1, the inertial sensor unit 3 is attached to the grip 42 of the test club 4 and measures the behavior of the test club 4 during a swing. However, the inertial sensor unit 3 can also be attached to another location such as the head 41 or the shaft 40. The inertial sensor unit 3 is small and lightweight so as not to interfere with the swing motion of the golf player G. The inertial sensor unit 3 may be detachably attached to the test club 4 or may be non-detachably fixed.

  As shown in FIG. 2, the inertial sensor unit 3 is equipped with an acceleration sensor 31, an angular velocity sensor 32, and a geomagnetic sensor 33. Each of these sensors 31 to 33 is a triaxial sensor that detects acceleration, angular velocity and geomagnetic data in an xyz local coordinate system whose origin is the mounting position of these sensors 31 to 33. The inertial sensor unit 3 is also equipped with a communication device 34 for transmitting the measurement data output from these sensors 31 to 33 to the external computer 1. In the present embodiment, the communication device 34 is of a wireless type so as not to interfere with the swing operation, but may be connected to the computer 1 in a wired manner via a cable.

<2-2-2. Camera system>
As shown in FIGS. 1 and 2, the camera system 5 includes a plurality of cameras 51 and 52 and a plurality of strobes 53, 53, 54 and 54, and performs stroboscopic photography. The camera 51 is fixed to a support base 57 on the front side of the golfer G so that the state of the head 41 and the ball 60 before and after the impact can be photographed from above, and is arranged diagonally above the ball 60 at the time of addressing. .. The strobes 53 and 53 are also fixed to the support base 57 and are arranged below the camera 51. Further, the camera 52 is arranged in front of the ball 60 at the time of addressing on the front side of the golfer G so that the state of the head 41 and the ball 60 before and after the impact can be photographed from a position different from the camera 51. The strobes 54 and 54 are arranged on the left and right of the camera 52. The golf ball 60 is appropriately provided with a marker in a dot shape, a line shape, or the like so that the behavior of the ball 60 can be easily extracted from the image data captured by the cameras 51 and 52.

  Further, the camera system 5 includes light projectors 55A and 55B and light receivers 56A and 56B. The light projector 55A and the light receiver 56A constitute one timing sensor, and the light projector 55B and the light receiver 56B have another timing. It constitutes a sensor. The timing signals generated by these timing sensors are used to determine the timing of the flashes of the strobes 53, 53, 54 and 54 and the subsequent shooting of the cameras 51 and 52.

  Further, the camera system 5 also includes a control device 50 for controlling the operations of the above devices 51 to 56B. The control device 50 has a CPU, a ROM, a RAM, and the like, and is connected to the communication unit 15 of the computer 1 in addition to the above devices 51 to 56B.

  The projectors 55A and 55B are arranged below the camera 51 near the ground on the front side of the golf player G. On the other hand, the light receivers 56A and 56B are arranged near the toes of the foot of the golfer G standing at the bat P1. The light projector 55A and the light receiver 56A are arranged on a straight line substantially parallel to the direction from the back to the abdomen of the golfer G, and face each other. The same applies to the light projector 55B and the light receiver 56B. The light projectors 55A and 55B constantly emit light toward the light receivers 56A and 56B, respectively, during the golf swing, and the light receivers 56A and 56B receive the light. However, at the timing when the test club 4 passes between the light emitters 55A and 55B and the light receivers 56A and 56B, the light from the light emitters 55A and 55B is blocked by the test club 4, so the light receivers 56A and 56B receive the light. Can not do it. The light receivers 56A and 56B detect this timing and receive it to generate a timing signal. The control device 50 commands the strobes 53, 53, 54 and 54 to emit light and commands the cameras 51 and 52 to shoot for a certain period of time based on the time when the timing signal is generated. The image data captured by the cameras 51 and 52 is transmitted to the control device 50 as measurement data, and further transmitted from the control device 50 to the computer 1.

<2-3. Computer>
As its name implies, the computer 1 is a general-purpose computer as hardware, and is realized as, for example, a desktop computer, a notebook computer, a tablet computer, or a smartphone. As shown in FIG. 2, the program 13a is installed in the computer 1. The program 13a is acquired from a recording medium such as a CD-ROM that can be read by the computer 1, or from a terminal on a communication network such as a LAN or the Internet to which the computer 1 is connected. The program 13a causes the computer 1 to execute the operations described below.

  The computer 1 includes a display 11, an input unit 12, a storage unit 13, a control unit 14, and a communication unit 15. These units 11 to 15 are connected to each other via a communication line 16 such as a bus line and can communicate with each other. The display 11 may be integrated into the main body of the computer 1 (a housing that houses the control unit 14 or the like) or may be externally attached.

  The storage unit 13 can be composed of a non-volatile storage device such as a hard disk or a flash memory. In the storage unit 13, the program 13a is stored and the measurement data transmitted from the measuring device 2 is stored. The control unit 14 can be composed of a CPU, a ROM, a RAM, and the like. The control unit 14 analyzes the shot of the golfer G based on the measurement data in the storage unit 13 by reading and executing the program 13a in the storage unit 13. The communication unit 15 functions as a communication interface that establishes various types of communication connections, and enables data transmission / reception with external devices such as the measurement device 2, the server 8, and the scanner 7. Although not limited to this, in the present embodiment, the communication unit 15 is connected to the measuring device 2 via a LAN port by wire, connected to a Wifi router, and connected to the server 8 on the Internet via the Wifi router. It The communication unit 15 is connected to the scanner 7 by short-range wireless communication such as Bluetooth (registered trademark) or wired communication via a cable. The input unit 12 can be configured by a mouse, a keyboard, a touch panel, etc., and accepts an operation mainly on the computer 1 from the operator F. The display 11 can be configured by a liquid crystal display or the like, and displays the analysis result of the shot by the control unit 14 and the diagnosis result of the shot including the fitting result to the operator F and the golfer G.

<2-4. Input terminal>
The input terminal 6 is a general-purpose computer as hardware, and is realized as, for example, a tablet computer, a smartphone, a notebook computer, or a desktop computer. As shown in FIG. 2, the program 63a is installed in the input terminal 6. The program 63a is obtained from a recording medium such as a CD-ROM that can be read by the input terminal 6 or a terminal on a communication network such as a LAN or the Internet to which the input terminal 6 is connected. The program 63a causes the input terminal 6 to execute the operation described later.

  The input terminal 6 includes a display 61, an input unit 62, a storage unit 63, a control unit 64, and a communication unit 65. These units 61 to 65 are connected to each other via a communication line 66 such as a bus line and can communicate with each other. The display 61 may be integrated into the main body of the input terminal 6 (a housing that houses the control unit 64 or the like) or may be externally attached.

  The storage unit 63 can be configured by a non-volatile storage device such as a flash memory or a hard disk. In the storage unit 63, the program 63a is stored, and various data input by the operator F and the golfer G are also stored. The control unit 64 can be composed of a CPU, a ROM, a RAM, and the like. The control unit 64 reads out and executes the program 63a in the storage unit 63. The communication unit 65 functions as a communication interface that establishes various types of communication connections, and enables data transmission / reception with an external device such as the server 8. Although not limited to this, in the present embodiment, the communication unit 65 is connected to a Wifi router and connected to the server 8 on the Internet via Wifi. The input unit 62 can be configured by a touch panel, a keyboard, a mouse, and the like, and accepts operations on the input terminal 6 by the operator F and the golfer G. The display 61 can be configured by a liquid crystal display or the like, and displays a screen or the like described later on to the operator F and the golfer G.

<2-5. Server>
The server 8 is a server computer called a database server, a storage server, or the like as hardware. The server 8 includes a database 83 composed of a non-volatile mass storage device and is connected to the Internet. This mass storage device stores various data uploaded from the computer 1 and the input terminal 6.

<3. Golf diagnosis process flow for fitting>
Hereinafter, with reference to FIG. 4, a flow of a golf diagnosis process for fitting performed using the golf diagnosis system 100 will be described.

  First, the golfer G is interviewed (step S1). The operator F prepares the input terminal 6 used for the inquiry, and activates the program 63a on the input terminal 6. The operator F displays an inquiry screen W1 for the golfer G as shown in FIG. 5 on the display 61, and hands the input terminal 6 to the golfer G. In addition, all the screens displayed on the display 61 of the input terminal 6 including the inquiry screen W1 are created by the control unit 64.

  The inquiry screen W1 is a screen that displays a plurality of inquiry items for the golfer G and receives an input of an answer to each of the plurality of inquiry items. Although not limited to this, the inquiry item here relates to the attribute information of the golfer G, and includes the golfer G's age, gender, type of golf club being searched, golf history, and number of rounds (for example, per year). , At least the amount of practice (eg, per month), average score, best score, year of best score update, ballistic self-assessment, worries about current golf club, and model of golf club currently in use. Contains items about one. The control unit 64 receives an input of an answer on the inquiry screen W1 via the input unit 62. As shown in FIG. 5, the answer to the inquiry item can be input in a selection format. For example, as shown in the figure, for the inquiry item "age", the answer options "10s and under" "20s" "30s" ... "70s" "on the inquiry screen W1. Objects corresponding to "over 80s" are displayed. Then, when the golfer G selects one of these objects by a mode such as clicking, an answer to the selected object is selected. Depending on the inquiry item, there are cases where alternative selection is required and cases where multiple selections are possible. In addition, answers to at least some of the inquiry items may be input in a free description format.

  When the golfer G finishes inputting the answers to all the inquiry items, the control unit 64 stores the attribute information of the golfer G, which is the answer, in the storage unit 63. Further, the control unit 64 creates an inquiry result screen W2 as shown in FIG. 6 and displays it on the display 61 toward the golfer G. The inquiry result screen W2 is a screen that collectively displays the answers to each of the plurality of inquiry items input via the inquiry screen W1, and the golfer G looks at this and confirms his / her input content. If there is an error in the input contents, the golfer G hands over the input terminal 6 to the operator F after appropriately correcting it. The operator F looks at the inquiry result screen W2, grasps the attribute information of the golfer G listed on the screen W2, and uses it as a reference for fitting. Therefore, the inquiry result screen W2 is also a screen for the operator F.

  After the interview, the golfer G makes a trial shot, and the state at this time is measured by the measuring device 2 (step S2). First, as a preliminary preparation for measurement by the measuring device 2, the operator F activates the program 13a on the computer 1. As a result, a basic setting screen (not shown) is displayed on the display 11, and basic information is set. Specifically, the control unit 14 receives the input of the basic information of the golfer G via the basic setting screen, and the operator F operates the input unit 12 to display the basic information of the golfer G on the same screen. input. This basic information is stored in the storage unit 13 and is appropriately used for analysis by the control unit 14. The basic information mentioned here is, for example, the sex of the golfer G. Note that all screens displayed on the display 11 of the computer 1, including the basic screen, are created by the control unit 14.

  The operator F selects the test club 4 to be tried by the golfer G while referring to the attribute information of the golfer G confirmed on the inquiry result screen W2. Typically, operator F causes golfer G to try various test clubs 4. The various test clubs 4 referred to here mean those having different club types, those having the same club type but different counts, or those having the same club type and the same count but having different specifications. The golfer G makes a test hit at the bat P1 with the test club 4 selected by the operator F, and the operator F observes the state of the shot at this time. The shot by the golf player G is performed once or a plurality of times for one test club 4.

  While the operator F observes the state of the shot with his / her own eye, the measuring device 2 collects the measurement data obtained by measuring each shot of the golf player G. More specifically, when the test club 4 is swung and the ball 60 is hit, the inertial sensor unit 3 measures the acceleration, angular velocity, and geomagnetism measurement data of the grip 42 from at least the address to the impact at the time of this shot. To be done. These measurement data are transmitted from the inertial sensor unit 3 to the computer 1. Further, in parallel with the measurement by the inertial sensor unit 3, the camera system 5 captures image data showing a state in the vicinity of the head 41 and the ball 60 before and after the impact at the time of this shot. These image data are also transmitted as measurement data to the computer 1 via the control device 50. On the computer 1 side, the control unit 14 receives measurement data from the inertial sensor unit 3 and the camera system 5 via the communication unit 15, and stores the measurement data in the storage unit 13.

  The control unit 14 of the computer 1 analyzes the measurement data each time one shot of measurement data is newly stored in the storage unit 13. More specifically, the control unit 14 analyzes the measurement data in the storage unit 13 to calculate various shot characteristic values as shot analysis results, and stores the shot characteristic values in the storage unit 13. In the present embodiment, as shot characteristic values, head speed immediately before impact, ball speed immediately after impact, meet rate (ratio of ball speed to head speed), vertical launch angle, backspin amount, left and right launch angle (both left and right deflection angles) Amount), side spin amount, horizontal flight distance (also referred to as left / right blur), carry distance of carry only, total carry distance of carry and run, face opening amount, orbit angle of head 41, and on the face surface. The hit points (left and right hit points) are calculated. The trajectory of the ball 60 is also calculated as the result of the shot analysis. However, these are mere examples, and it is not necessary to calculate all the analysis items of the shots mentioned here, and other analysis items may be calculated. Various methods of calculating the above-described shot analysis items based on the above-described measurement data are known, and thus detailed description thereof will be omitted here.

  While the measurement of the shot is being performed by the measuring device 2, the control unit 14 displays the analysis result screen W3 as shown in FIG. 7 on the display 11. The analysis results of the above shots are displayed on the analysis result screen W3. More specifically, a table T1 for displaying a list of shot characteristic values is arranged on the analysis result screen W3. Then, each time a shot characteristic value for one shot is newly calculated, those shot characteristic values are input to the table T1. Further, below the table T1, a graphic T2 representing the trajectory of the ball 60 corresponding to the same shot is displayed. The table T1 and the graphic T2 are displayed for each test club 4. In the table T1, the set of shot characteristic values for the first shot with the same test club 4 is displayed on the first line, the set of shot characteristic values for the second shot is displayed on the second line, and so on for the third and subsequent shots. is there. Also, in the graphic T2, the trajectory of the ball 60 is displayed by the number of shots of the same test club 4. In the bottom row of the table T1, the average value of shot characteristic values for a plurality of shots for the same test club 4 is displayed. The average value of the shot characteristic values is calculated by the control unit 14 every time a new set of shot characteristic values is calculated in the same test club 4. The results of trial hits of different test clubs 4 are displayed in another table T1 and graphic T2 which are displayed by appropriately switching selectively selectable tabs T3 and T4 on the analysis result screen W3. The tab T3 is a tab for switching the club type, and the tab T4 is a tab for switching the test club 4 of the club type currently selected by the tab T3.

  The operator F refers to the shot characteristic values of the golfer G displayed on the analysis result screen W3 and observes the shot of the golfer G with his / her own eyes, and the characteristics of the golfer G (mainly the characteristics related to the shot of the golfer G). ) To judge. Then, the operator F inputs the observed characteristics of the golfer G into the input terminal 6 as observation information regarding the result of observing the golfer G. At this time, the operator F displays the first selection screen W4 for the operator F as shown in FIG. 8 on the display 61. The control unit 64 receives the input of the characteristics of the golf player G on the first selection screen W4 via the input unit 62. The characteristics of the golfer G here include the behavior of the golfer when the golfer makes a shot, the behavior of the golf club and the behavior of the golf ball, the attributes of the golf club currently used by the golfer, the practice amount of the golfer, and the golfer. At least one of the

  In the present embodiment, the characteristics of the golfer G can be input in a selection format, and as shown in FIG. 8, the classifications representing the characteristics of the golfer to be selected are hierarchically displayed on the first selection screen W4. To be done. In the example illustrated in FIG. 8, the operator F selects “downswing” as the first hierarchy, “rotation” as the second hierarchy, and “more” as the third hierarchy. Then, by such selection, the characteristic of the golfer G that "there is a lot of rotation during downswing" is input. In addition, at least a part of the characteristics of the golfer G may be able to be input in a free description format. The input features of the golfer G are stored in the storage unit 63 as observation information.

  Further, the operator F inputs the characteristics of the golfer G and determines the characteristics of a golf club (hereinafter referred to as a recommended club) suitable for the golfer G. Then, the operator F inputs the characteristics of the recommended club into the input terminal 6 as the observation information regarding the result of observing the golfer G. At this time, the operator F displays the second selection screen W5 for the operator F on the display 61 as shown in FIG. The control unit 64 receives the input of the recommended club feature on the second selection screen W5 via the input unit 62. The features of the recommended club here include at least one of a golf club attribute, a head attribute, a shaft attribute, and a grip attribute.

  In the present embodiment, the features of the recommended clubs can be input in a selection format, and as shown in FIG. 9, the classifications representing the features of the golf clubs to be selected are hierarchically displayed on the second selection screen W5. Is displayed. In the example illustrated in FIG. 9, the operator F selects “club” as the first hierarchy, “balance” as the second hierarchy, and “B6” as the third hierarchy. Then, by such selection, the characteristic of the recommended club to be recommended to the golfer G, that is, "the balance of the golf club is B6" is input. It should be noted that the characteristics of the recommended club may be able to be input in free description format for at least a part of the content. The input recommended club characteristics are stored in the storage unit 63 as observation information.

  Further, the control unit 14 of the computer 1 receives an input of club information regarding each test club 4 used for a trial hit of the golfer G. This club information is acquired from the club code given to the test club 4. The operator F inputs the club information into the computer 1 by operating the scanner 7 for each test club 4 used by the golfer G to read the club code assigned to the test club 4. In response to this, the control unit 14 interprets the club information held in the club code and stores it in the storage unit 13. The operation of inputting club information can be performed before or after the trial hit of the test club 4.

  When all the trial hits are completed and the operator F performs a predetermined operation via the input unit 62 of the input terminal 6, the control unit 64 causes the control unit 64 to specify a code for identifying the golf diagnosis process that is currently being performed (hereinafter referred to as "diagnosis"). A code) is generated (step S3). Although not limited to this, for example, the diagnosis code can identify each diagnosis even if a plurality of people are diagnosed at the same place on the same day, such as a combination of a date and a serial number assigned to the diagnosis process on that day. Information. The diagnostic code is uniquely associated with the attribute information and the observation information of the golfer G acquired during the inquiry (step S1) and the measurement (step S2), and is stored in the storage unit 63.

  Subsequently, the control unit 64 accesses the server 8 via the communication unit 65, associates the attribute information and the observation information of the golfer G with the diagnostic code, and uploads it to the database 83 together with the diagnostic code (step S4). In response to this, the attribute information and the observation information of the golf player G are stored in the database 83 in association with the diagnostic code.

  When the operator F performs a predetermined operation via the input unit 62 of the input terminal 6, the control unit 64 displays the diagnostic code on the display 61 (step S5). Although not limited to this, the diagnostic code of this embodiment displayed on the display 61 has the form of a two-dimensional barcode such as a QR code (registered trademark). On the other hand, the control unit 14 of the computer 1 receives the input of the diagnostic code from the operator F (step S6). The operator F inputs the diagnostic code to the input terminal 6 by operating the scanner 7 and reading the diagnostic code displayed on the display 61. In response to this, the control unit 14 interprets the diagnostic code in the form of a two-dimensional bar code, and uses this diagnostic code, the measurement data acquired during measurement (step S2), the analysis result of the shot based on this, and the club. The information is uniquely associated and stored in the storage unit 13.

  Further, the control unit 14 of the computer 1 accesses the server 8 via the communication unit 15, and uses the diagnostic code as a key to obtain attribute information and observation information of the golfer G associated with the diagnostic code from the database 83 of the server 8. The information is extracted and these pieces of information are downloaded (step S7). The downloaded attribute information and observation information of the golfer G are stored in the storage unit 13 in association with the measurement data, the shot analysis result, and the club information, using the diagnostic code as a key. In this way, various types of information obtained by various methods at the time of golf diagnosis are integrated in the computer 1.

  Subsequently, the control unit 14 of the computer 1 compositely analyzes various types of information including the measurement data, the shot analysis result, the club information, the attribute information of the golfer G, and the observation information in the storage unit 13, and the golfer The diagnostic result of the G shot is created (step S8). The diagnosis result includes attribute information of the golfer G who made the trial hit, club information about the test club 4 used for the trial hit, the analysis result of the shot of the golfer G, the tendency of the shot of the golfer G calculated based on these information, And observation information. In addition, in the diagnosis result, as a final result of the fitting, information (model which may be a recommended club and / or a part thereof (hereinafter, also referred to as a recommended club / part) which matches the characteristics of the recommended club included in the observation information may be specified. And model number) are also included. It should be noted that the storage unit 13 stores information for identifying golf clubs and / or their parts of various lineups in association with respective characteristics. Then, the control unit 14 specifies the recommended club / part by collating the characteristics of the recommended club with this information in the storage unit 13. The control unit 14 creates a diagnostic result screen that summarizes the diagnostic results and displays this on the display 11. The screen W6 of FIG. 10 is an example of a diagnostic result screen displaying information for identifying recommended clubs / parts.

  The operator F presents the diagnosis result screen displayed on the display 11 to the golfer G, and while confirming the diagnosis result screen, talks about the diagnosis result including the fitting result.

  The control unit 14 of the computer 1 accesses the server 8 through the communication unit 15 and has not yet uploaded to the server 8, that is, measurement data in the storage unit 13, shot analysis results, club information, and diagnosis results. Is associated with the diagnostic code and uploaded to the database 83 together with the diagnostic code (step S9). In response to this, in the database 83, the attribute information and the observation information of the golfer G that have already been uploaded, the measurement data, the shot analysis result, the club information and the diagnosis result are associated with the diagnosis code as a key, Saved. In this way, various types of information obtained in various methods during golf diagnosis are integrated in the server 8. This completes the series of fitting-related processing.

  As described above, the server 8 is connected to a large number of golf diagnosis systems 100, so the database 83 stores the above-mentioned data collected by the large number of golf diagnosis systems 100. After that, the data accumulated in the server 8 can be used for big data analysis and the like.

<4. Modification>
Although one embodiment of the present invention has been described above, the present invention is not limited to the above embodiment, and various modifications can be made without departing from the spirit of the present invention. For example, the following changes are possible. Further, the gist of the following modified examples can be appropriately combined.

<4-1>
The server 8 does not have to exist on the Internet. For example, it may be in a LAN.

<4-2>
In the embodiment described above, the club code is given to the test club 4, but the club code is not given to the test club 4 itself, but the test club 4 is associated with the club code holding the club information. You may prepare the paper on which the displayed list is printed. In this case, the operator F may use the scanner 7 to read the club code corresponding to the test club 4 used for the trial hit from the paper. The scanner 7 can also be realized as, for example, a smartphone or a tablet equipped with a camera.

<4-3>
Although the scanner 7 is used to input the diagnostic code and the club code to the computer 1 in the above-described embodiment, the input of at least one of these codes may be performed manually. For example, a diagnostic code including alphanumeric characters may be displayed on the display 61 of the input terminal 6, and the operator F may input the diagnostic code into the computer 1 via the keyboard, the touch panel, or the like of the computer 1.

<4-4>
In the above embodiment, in step S9, the attribute information and the observation information of the golfer G already uploaded to the server 8 are not transmitted from the computer 1 to the server 8, but are already uploaded to the server 8 in the database 83. The above-mentioned information and the newly uploaded information are linked by using the diagnostic code as a key. However, in step S9, the attribute information and the observation information of the golfer G, which have already been uploaded to the server 8, are associated with the newly uploaded measurement data, shot analysis results, club information, and diagnosis results, and the computer 1 sends them to the server. 8 may be uploaded. In this case, it is not always necessary to perform a process of associating these pieces of information with the diagnostic code in the server 8.

100 golf diagnosis system 1 computer 11 display (first display)
2 Measuring device 4 Test club (golf club)
6 Input terminal 61 Display (second display)
7 Scanner (reader device)
8 Server 83 Database G Golfer F Operator

Claims (9)

A golf diagnosis system connected to a server,
A measurement device that collects measurement data that measures how a golfer tries a golf club,
A computer having a first display and connected to the measuring device;
A second display, comprising the golf player and an input terminal operated by an operator who guides the golfer,
The input terminal is
Accepts input of the golfer's attribute information from the golfer,
Generate a code uniquely associated with the golfer's attribute information,
Upload the golfer's attribute information and the code in association with the server,
Displaying the code on the second display,
The computer is
Receiving the measurement data from the measuring device,
Accept the input of the code from the operator,
With the code as a key, the attribute information of the golfer associated with the code is downloaded from the server,
Based on the measurement data and the attribute information of the golfer, create a diagnosis result of the shot of the golfer,
Displaying the diagnosis result on the first display,
Golf diagnostic system. The computer associates the measurement data with the code, or associates the measurement data with the attribute information of the golfer and uploads them to the server.
The golf diagnosis system according to claim 1. The input terminal is
Accepting input of observation information regarding the result of observing the golfer from the operator,
Upload the observation information and the code in association with the server,
The computer is
Downloading the observation information associated with the code from the server using the code as a key,
In addition to the measurement data and the golfer attribute information, further based on the observation information, to create the diagnostic result,
The golf diagnosis system according to claim 1. The computer associates the observation information, the measurement data, and the attribute information of the golfer with each other, and uploads them to the server.
The golf diagnosis system according to claim 3. The computer is
Accepting input of club information about the golf club used for the golfer's trial hit,
In addition to the measurement data and the golfer attribute information, further create the diagnosis result based on the club information,
The golf diagnosis system according to claim 1. The computer receives an input of the club information by reading a code holding the club information via a reader device connected to the computer,
The golf diagnosis system according to claim 5. The computer associates the club information, the measurement data and the code with each other, or associates the club information, the measurement data and attribute information of the golfer with each other, and uploads them to the server.
The golf diagnosis system according to claim 5 or 6. A golf diagnosis system connected to a server,
A measurement device that collects measurement data that measures how a golfer tries a golf club,
A computer connected to the measuring device,
An input terminal operated by an operator who guides the golfer and the golfer;
The computer receives the measurement data from the measurement device, uploads the measurement data to the server,
The input terminal receives an input of the golfer's attribute information from the golfer, uploads the golfer's attribute information to the server,
The server associates and stores the measurement data and the attribute information of the golfer,
Golf diagnostic system. The computer accepts input of club information about the golf club used for the golfer's trial hit, uploads the club information to the server,
The server stores the measurement data, the golfer's attribute information, and the club information in association with each other,
The golf diagnosis system according to claim 8.