JPH08143B2 - Golf data storage - Google Patents

Description

Description: TECHNICAL FIELD OF THE INVENTION The present invention relates to a golf data storage device for storing and displaying a score in a golf competition.

[Prior art]

In golf competition, a standard number of strokes is specified for each hole, and if a certain hole is completed with a standard number of strokes, it is a so-called par. If the hole is finished with one more stroke than the standard number of strokes, it is a so-called bogey. On the contrary, if the hole is finished with one stroke less than the standard stroke, it is a so-called birdie.

In such a golf game, there is known a golf counter which electronically counts the number of hits (score) of each hole by the number of times a switch is operated. In addition, this conventional golf counter can also calculate a total score (round score) after the competition, that is, after one round.

[Problems of conventional technology]

However, although the conventional golf data storage device as described above can see the result of one round, it has a drawback that the past data, for example, the past round average is not known. Or I don't know how the round average is on the same course. In such a case, past round averages and the like must be stored on paper together with dates and the like.

Although it is possible to store past data in a computer or the like, the golf score is influenced by the difficulty level of the golf course in addition to the skill. Therefore, there is a drawback in that it is not possible to know the exact degree of improvement in golf technology just by storing past data in a computer.

[Object of the Invention]

In view of the above-mentioned conventional drawbacks, the present invention provides a golf data storage device capable of storing the total score of past competitions and the golf course that gave the total score, and easily knowing the degree of improvement in golf technique. The purpose is to provide.

[Main points of the invention]

In order to achieve the above object, the present invention stores a total score of past competitions for each golf course in a storage means for each date, and displays the stored competition dates and scores. The gist is that it is possible to easily know the improvement of the skill of the athlete by calculating the average value of the total scores of the past competitions for each golf course by the calculating means and displaying it on the display means. Is.

Example of Invention

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

In this embodiment, the present invention is applied to an electronic wrist watch, and FIG. 1 is a perspective view of the electronic wrist watch. In this electronic wristwatch, the number of strokes in each hole and the like can be input in accordance with a switch operation described later.

In the figure, reference numeral 2 is a wristwatch case, and a liquid crystal display unit 1 is provided on the upper surface of the wristwatch case 2. As shown in FIG. 2, the liquid crystal display unit 1 is composed of a liquid crystal display element capable of displaying 8 × 4 characters (digits). The liquid crystal display unit 1 displays the date and time, the day of the week, etc. in the time mode, and the golf course (golf club) name, average total score, etc. in the golf mode. For example, as shown in FIG. 2, "1985 SUN 6-23 in the time mode.
If PM3: 25-45 "is displayed, this display is today 1
It is Sunday, June 23, 985, and the current time is 3:25 pm 4
Indicates 5 seconds.

On the other hand, returning to FIG. 1, the wristwatch case 2 is provided with a large number of switches. Below the above-mentioned liquid crystal display unit 1, the switches S _A and “4” with “5” are displayed. one switch S _B, "3" switches S _C marked as are provided, the switches S _a, S _B, is above the S _C corresponding to each of the switches _{S a ~S C "Bogey",} "Par The display unit 3 showing the display of "," Birdie "is configured by printing or the like. That is, the switches S _{A to} S _C have two functions, one functioning as a switch for inputting the number of pars in each hole in the par setting mode, and the other in the score input mode for the score of each hole. Acts as a switch to input.

For example, in the par setting mode, pressing switch S _A sets the number of pars to “5”, pressing switch S _B sets the number of pars to “4”, and pressing switch S _C sets the number of pars. Set to "3". Also, in the score input mode, by pressing switch S _A , one more than the preset number of pars is input, by pressing switch S _{B the} number of pars itself is input, and by pressing switch S _C This is a configuration in which a number smaller than the number of pars by one is input.

In addition, a plus (hereinafter +
A switch 4 and a minus (hereinafter-shown) switch 5 are provided. The + switch 4 is a switch for sequentially displaying the golf courses in the golf mode and advancing the number of holes in the score input mode in each golf course described later. On the contrary, the switch 5 is a switch for returning and displaying the golf courses sequentially displayed in the golf mode and for returning the number of holes sequentially in the score input mode.

Push-type switches S _{1 to} S ₄ are arranged on the side surface of the wristwatch case 2. The switch S ₁ is a mode switching switch, and every time the switch S ₁ is pressed, the display of the liquid crystal display unit 1 is switched between the time mode display and the golf mode display. The switch S ₂ is a switch for switching to the score input mode of each hole of the displayed golf course in the golf mode.

Further, the switch S ₃ is a switch for retroactively displaying the past total score on the displayed golf course in the golf mode.

Further, the switch S ₄ is a switch for returning the past total data displayed retroactively by the above-mentioned switch S ₃ to the latest data in the golf mode.

The electronic wristwatch having the above-mentioned external structure has an electronic circuit as shown in FIG.

In the figure, a ROM (read-on memory) 6 stores a microprogram for controlling the clock and golf data storage operation of this circuit, and each microprogram is read from the area addressed by the address control unit 7. The program is executed sequentially. For example, in this read program, the operation code (O
P) is input to the instruction decoder 8 and data (DO) is described later in RAM (random access memory) 9 and arithmetic circuit 10.
, And the next address signal (NA) is input to the address controller 7. The instruction decoder 8 to which the operation code (OP) is input decodes the operation code (OP) and outputs various signals. RAM9 for example
The read / write signal a is output to, the operation command signal b is output to the operation circuit 10, and the display signal c is output to the display decoder 10.

In the RAM9 to which the read / write signal a is input, write data to the RAM9 according to the read / write signal a, or
Read data from. For example, when a write signal is input to the RAM 9, the switches S _{A to} S _C , +, −, S _{1 to} S ₄ (these switch inputs are collectively referred to as the key input unit 12 in FIG. 3).
Input data from the data bus (DATABU)
Write to RAM9 via S). In addition, the arithmetic circuit 10 described later
The calculation result d of is also written in the RAM 9. On the contrary, when the read signal is input to the RAM 9, the data of the RAM 9 is output to the arithmetic circuit 10.

In the arithmetic circuit 10, when the above-mentioned arithmetic command signal b is input, D
Calculates the data input to 11 and D12. For example,
When the arithmetic circuit 10 calculates the data in the RAM9, the data output from the RAM9 is input to D11 and D12, the arithmetic command signal b is used to perform the arithmetic operation, and the arithmetic result d is again stored in the RAM9. Remember.

Further, the display data e is also output from the RAM 9 to the display decoder 11 by a read signal. If the display signal c is input to the display decoder 11 at the same time, the display decoder 11 decodes the input display data e, and the display unit The decoded display data e'is output to 13. The display unit 13 displays the display data e'on the liquid crystal display unit 1 (the liquid crystal display unit 1).
Constitutes a part of the display unit 13).

On the other hand, the timing generator 14 outputs various timing (synchronization) signals f necessary for controlling the ROM 6, the address controller 7, the instruction decoder 8 and inputting / outputting data. The timing signal f is obtained by dividing the high frequency signal output from the oscillator 15 made of crystal or the like by the frequency dividing circuit 16 and inputting it to the timing generator 14, so that the timing generator 14 further converts the input signal to a predetermined frequency. The frequency is divided up to and various timing signals f are created.

Further, the clock clock g is output from the frequency dividing circuit 16, and when the clock clock g is input to the address control unit 7,
The address control unit 7 shifts the program in the ROM 6 to the timing processing flow.

Next, FIG. 4 shows a specific internal configuration of the RAM 9 used in the control circuit described above.

As shown in the figure, the RAM 9 includes a date register 9a that stores the date of the current day, a time register 9b that stores the time, registers S _{1 to} S ₁₈ that stores the score of each hole, auxiliary registers 9c, each golf course, It is composed of a register 9d for storing the date when the golf course is used, an average score and the like, and flag registers such as MS.

The above-mentioned register 9d further includes registers 9d-1, 9d-1 '... For storing the golf course names, and registers 9d-2, 9d- for storing the past average scores on the golf course.
2 '... and a register 9d-3, 9d-3', which stores the date when the golf course was used and the total score at that time
・ ・ It consists of. Further, M to S are flag registers. To describe the flag registers M to S more specifically, "1" is set in the flag register M in the time mode, and "0" is set in the other modes. It "1" is set in the flag register N in the golf mode, and "0" is set otherwise. "1" is set in the flag register O in the score input mode, and "0" is set otherwise. The flag register P stores a counter value indicating the golf course name stored in the register 9d.

Above configuration registers 9a~9d, S ₁ ~S _18, the flag register M, N, O, P, Q, R, ( the contents of RAM 9) the contents of register S such arithmetic circuit by the above-mentioned read signal 10, key input section 1
It is sequentially updated by the data output from 2. Also,
The contents of the above-mentioned register (contents of RAM 9) are sequentially output to the arithmetic circuit 10 and the display decoder 11 by the write signal.

An electronic wrist watch having the above circuit configuration normally performs a timekeeping process (in the time mode). That is, the fifth
As shown in the flow chart in the figure, if there is no switch processing instruction from the HALT state (step Y ₁ ), second processing (clock processing) is sequentially performed at a predetermined timing, for example, every 1/16 second (step). Y ₂ ). This clock processing is 16Hz
It is executed by the above-mentioned clock clock g output every time, and the time data obtained by this clock processing is stored in the time register of RAM9 in FIG. 4 and the date of the day obtained by the clock processing. The data is stored in the date register 9a of the RAM 9. On the other hand, switch processing (step
Y ₃ ) is the key input unit 12 (switches S _{A to} S _C , S _{1 to} S) described above.
_This is a process performed by controlling ROM6, RAM9, etc. by signals input from ( ₄ etc.).

The switch processing, which is the main part of the present invention, will be described below.

FIG. 6 is a diagram showing changes in the display contents displayed on the liquid crystal display unit 1 when the switches S _{A to} S _C , S _{1 to} S ₄ , the + switch 4, and the − switch 5 are operated. In the figure, N'enclosed by a dotted line shows a change in the display contents of the liquid crystal display unit 1 in the golf mode, and O'also surrounded by a dotted line shows a change in the display contents of the liquid crystal display unit 1 in the score input mode. Show.

First, in the normal time mode (flag register M is "1"
At the time), the display content of the liquid crystal display unit 1 displays the day of the week and the time as shown in 1a. It is performed by operating the switch S ₁ in the case of transition from the state to the mode N '. That is, as shown in the flowchart when the switch S _{1 of} FIG. 7 is operated, when the switch S ₁ is operated, the flag register M = 1 is judged (step ST1), M = 1, that is, the sixth step. In the normal time display mode shown in FIG. 1a, "1" is set in the flag register N, the golf mode is entered, and the auxiliary register 9c registers 9d-1,
The data of the golf course name in 9d-2 and the past average total score in the golf course are stored (step
ST2). Further, "0" is set in the flag register M, and the display content stored in the above-mentioned auxiliary register 9d is displayed on the liquid crystal display section 1 (steps ST3, ST4). The contents displayed on the liquid crystal display unit 1 at this time are the data stored in the registers 9d-1 and 9d-2 of the RAM 9 as shown in 1b of FIG.

Therefore, the golf course name "ABCDE" is displayed on the liquid crystal display unit 1.
And the average total score “80” on that golf course is displayed.

On the other hand, in (ST1), if M = 1 is not satisfied (if it is not the time mode, it is judged whether the golf mode is N '. If it is the golf mode N', the flag register N is set to "0". Is set to "1" in the flag register M.
Is set and the liquid crystal display unit 1 is caused to display the time (display the display content 1a) (steps ST5 to ST7). By operating the switch S _{1 in} this manner, when the time and the like are displayed on the liquid crystal display unit 1, the mode is changed to the golf mode and the golf course and the like are displayed, and conversely, when the golf course and the like are displayed, the time and the like are displayed. Change to mode and display time etc.

In addition, in a state in which the display contents 1b on the liquid crystal display unit 1 is displayed, if you want to know the details of the total score of the golf course that is being displayed, to operate the switch S _3. FIG. 8 is a flow chart when the switch S ₃ is operated. Operating the switch S _3, after determining whether tentatively or golf mode, and date stored in the register 9d-3 described above, and displays the total score at that time on the liquid crystal display unit 1 (Step S _1, S ₂ ). Therefore, as shown in FIG. 6c, the liquid crystal display element 1 has “5-15 79”, “5-2 84”,
"4-3 80" and "3-10 78" are displayed. In this display, the total score on May 15 is 79, the total score on May 2 is 84, and so on.
The total daily scores are 80 and 78, respectively.
Therefore, the athlete can confirm the past data on the golf course "ABCDE" by looking at this display content 1c.

In addition, if you want to know the past performance of the golf course "ABCDE" is, and before the competition date, which is not shown by operating the switch S ₃ again stored into the register 9d-3, a total score of at that time Display sequentially. Moreover, by operating the switch S ₄ (flow of the time of operating the switch S ₄ is not shown because the other simply interchanged in the flow chart of the update data is sequentially new data Figure 8 is the same), sequentially old The total score is updated to the new total score.

On the other hand, when it is desired to see the average score of another golf course in the state where the liquid crystal display unit 1 has the display content 1b, the + switch 4 is operated. If you operate this + switch 4,
According to the flow chart shown in the figure, it is determined whether or not the golf mode is set. If the golf mode is set, the content of the flag register P is incremented by 1, and the golf course stored in the register 9d and the average score in the auxiliary register 9c are displayed on the liquid crystal display. It is displayed on part 1 (steps k1 to k3). At this time, the content displayed on the liquid crystal display unit 1 is the golf course name “FGHIJ” and the average score stored in the registers 9d-1 ′ and 9d-2 ′, as shown by the display content 1d in FIG. It is "78". Therefore, the player can confirm the next golf course and the average score on the course by operating the + switch 4.

In addition, if you want to know the past results on this golf course "FGHIJ", you can operate the switch S ₃ in the same way as in the case of the above-mentioned display content 1b to change the display content of the liquid crystal display unit 1 from 1d to 1e. Can be moved to. This display content 1e is
5-1 78,4 stored in register 9d-3 'of RAM9
-1 77,3-30 78,2-15 80, and as before, the total score on May 1 was 78, the total score on April 1 was 77, and so on. It shows that the total score of each of the 15th of the month was 78,80. Therefore, the operator is also historical data of the golf course "FGHIJ" can be confirmed, if you want to know even even older data can be confirmed by operating the switch S ₃ further. In addition, it can update the display of the date and the total score by operating the switch S ₄ to new data from the old data is the same as described above.

Further, if it is desired to know the data of another golf course from the state of the above-mentioned display contents 1d, the + switch 4 is operated and the next golf course and the average total score are shown in the flowchart of FIG. 9 (steps k1 to k3). Display according to. In this way, the display content 1f displayed on the liquid crystal display unit 1 is the next golf course name “KL” (not shown) in the RAM 9.
It is M "and the average total score is" 81 ".
In the same way as above, by operating switches S ₃ and S _{4 in the same way} as before, past competition data at the golf course "KLM" (display content 1g etc.)
Can be displayed to check the past data on the golf course "KLM".

Further, by operating the + switch 4, the golf course name stored in the RAM 9 and the average total score on the golf course can be displayed on the liquid crystal display unit 1. Further, the past data on the golf course displayed in that state can be displayed by operating the switches S ₃ and S ₄ .

On the other hand, in the case of returning the display contents, which have been sequentially updated to 1b → 1d → 1f → ... On the liquid crystal display unit 1 as described above, the switch 5 is operated. The processing flow at this time is the eighth
After determining whether or not the golf mode is set, the contents of the flag register P are decremented by 1 and the display contents are sequentially ... → 1f →
Update and display 1d → 1b.

Next, in order to input new competition data to each golf course displayed as described above, the switch S ₂ is operated. That is, as shown in the flow chart of FIG. 10, when the switch S ₂ is operated in the golf mode (when the liquid crystal display unit 1 is in the display contents 1b, 1d, 1f ...), "0" is set in the flag register N. There is set, "1" is set in the flag register of O, proceeds to the score input mode O '(step V ₁ ~ step V _3). At this time, the hole number (hereinafter referred to as the hole number) 1 and the score "4" in the hole number 1 are input to the liquid crystal display unit 1.

Here, when the par number of the first hole (Hall No1) is input, it is input by operating any one of the switches S _{A to} S _C. For example, if the first hole is 5 strokes, the switch S _A is pushed once, if it is 4 strokes, the switch S _B is pushed once, and if it is 3 strokes, the switch S _C is pushed once.

In this way, the data input from any one of the switches S _{A to} S _C is input from the key input unit 12,
Displayed on the liquid crystal display unit 1 as shown in display content 1h.

Next, operate + switch 4 (the operation flow of + switch at this time is steps k4 and k5) 2nd hole (hole No2)
Enter the score of. If the score of the second hole is "5", the display content of the liquid crystal display unit 1 at this time is displayed as shown in FIG. 6i. Further, when the + switch 4 is operated to display the third hole and the score "3" in this hole is input, it is displayed as shown in FIG. Furthermore, the fourth
From hall to 18th hole + switch 4, switches S _{1 to} S ₄
Use to input the score. In addition, after inputting the scores up to the 18th hole, the − switch 5 can be operated to return the number of holes in reverse and confirm whether or not the input of the score is correct.

As described above, in the score input mode O ′,
Operating the switch S ₂ after entering the score up first to 18 holes, the process proceeds to the golf mode N '. At this time, the display in the golf mode N'is the display contents 1b, 1d, 1f ... Of the original golf course name when the golf mode N'is shifted to the score input mode. Moreover, the average total score displayed at this time is a value including the data recorded in the score input mode O '.

That is, as shown in the flow chart of FIG. 10 (step V ₁ is N) and thereafter, when the switch S ₂ is operated in the golf input mode, "0" is set in the flag register O and the flag register N is set. after setting to "1", to calculate the total average plus the total value and the total value of the scores entered in this score input mode O 'in the calculating portion 10 described above (step V ₄ ~ step V ₆₎ . Total values obtained in this calculation is stored in the register 9d in RAM9 along with the date and updates the total average of the corresponding register in the register 9d-2,9d-2 '··· (Step V _7), The new total average and its golf course name are displayed on the liquid crystal display unit 1.

As described above, the switch S ₂
Can be operated to store the new total score in the register 9d in the RAM 9 as data for the golf course in which the game was played. Further, since the data sequentially input in this manner is stored in the golf course, it is possible to judge by displaying the past data and the total average for each golf course when the progress of the golf technique is later viewed.

In the above embodiment, an embodiment in which the present invention is applied to a wrist watch has been described, but it may be incorporated in, for example, a small computer or a card-type small electronic device such as an IC card or a card-type radio. It can be used as a golf-only machine.

Further, the number of switches is not limited to this embodiment, for example, depending on the simultaneous operation of a plurality of switches or the operation duration time,
Different operations may be performed, and a dedicated switch may be provided for each function.

Further, although various scores are displayed by the liquid crystal display device in the above-mentioned embodiment, other display devices may be used, and a printer may be used as the display device and displayed by printing.

〔The invention's effect〕

As described in detail above, according to the present invention, the total score can be stored together with the date for each golf course (golf club), so that it is possible to immediately know when and how much score was given on the course. Also, since the average total score is displayed for each course (club),
Accurate golf skill improvement can be judged regardless of the difficulty level of the course.

Further, by incorporating the golf data storage device of the present invention into an easily portable electronic wristwatch as shown in this embodiment, it becomes possible to use the golf data storage device more easily.

[Brief description of drawings]

FIG. 1 is an external view of an electronic wrist watch having a golf data storage device according to the present invention, FIG. 2 is a block diagram of a liquid crystal display unit 1, FIG. 3 is a circuit diagram of the electronic wrist watch, and FIG. 4 is a RAM block diagram. , FIG. 5 is a flowchart showing the basic operation of the electronic wristwatch, FIG. 6 is a configuration diagram showing the change in the display contents of the liquid crystal display section when the switch processing is performed, and FIG. 7 is the operation diagram when the switch S ₁ is operated. FIG. 8 is a flowchart when the switch S ₃ is operated, FIG. 9 is a flowchart when the + (−) switch is operated, and FIG. 10 is a flowchart when the switch S ₂ is operated. 1 ... Liquid crystal display, 4 ... + switch, 5 ...- switch, 6 ... ROM, 7 ... Address controller, 8 ... Command decoder, 9 ... RAM 9a ... Date register, 9b ... Time register, 9c ... Auxiliary register, 9d ... Register, 10 ... Arithmetic circuit, 12 ... Key input section, 13 ... Display section, 15 ... Oscillator, 16 ... Division circuit, S _{1 to} S ₄ , S _A 〜S _C …… Switch.

Claims (1)

[Claims] 1. A batting number data input means for inputting batting number data for each hole of golf, a batting number data storing means for storing batting number data for each hole inputted by the batting number data input means, and this batting number data storage. Calculating means for calculating the total of the hit count data for each hole stored in the means to obtain golf score data; and a plurality of course data storage means for respectively storing course data for specifying a plurality of golf courses, Golf score data storage means provided corresponding to each of the plurality of course data storage means for storing a plurality of golf score data obtained by the arithmetic means, and a plurality of course data stored in the plurality of course data storage means One of the selecting means for selecting and specifying, and the course data selected by the selecting means are stored. Golf data storage apparatus characterized by comprising display means for displaying a golf score data of the golf score data storing means is stored corresponding to the data storage means.