KR20140052352A - Golf putter with hit exercise functionm, and hit exercise method using the same - Google Patents

Abstract

The present invention relates to a golf putter with an accurate hitting practice function and an accurate hitting practice method using the same. With regard to a golf putter consisting of a putter head divided into a head front side, a head upper side, and a head back side; a shaft; and a grip, the present invention comprises an attach-type accurate hitting practice device formed detachably on the head back side to output an accurate hit sound effect when a golf ball is hit with an accurate hit by the head front side and to output an inaccurate hit sound effect when the golf ball is hit with an inaccurate hit by the head front side. In this, the accurate hit sound effect is output in a case where a user hits the golf ball with the head front side of the putter within a predetermined range of hit accuracy; and if not, the inaccurate hit sound effect is output, thereby providing the effect of enabling a user to immediately check the hit accuracy by a difference in sound effect.

Description

[0001] The present invention relates to a golf putter having a fitness exercise function and a golf putter having a fitness practice function,

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a golf practice method using a golf putter having a static practice function and a golf putter having a static practice function, and more particularly, And a golf putter having a static practice function for making it possible to promptly confirm whether or not static elimination has been performed due to a difference in sound effect and a golf putter having a static practice function.

For golfers, golfers should include drivers, fairway woods, irons, wedges (pitching / sand / robe) and putters.

Especially putters are one of the most important golf clubs used to strike golf balls with a golf ball on the green.

The main function of the putter is to aim the cup, which is the target point on the green, and there are L-shaped putter, T-shaped putter, pin type putter and putty type putter.

On the other hand, the putter should have a good sense of the golfer's senses and rhythm, but the most essential requirement is to have good direction and distance to roll the golf ball.

Directionality is the sighting alignment with visual sense, and the most important factor is the visual sense function of the structure and function of the putter. The distance is determined by the size of the swing and can be improved by a lot of repeated training.

A conventional putting practice using a putter constitutes a target device capable of entering a ball into an artificial turf mat and directly hitting one golf ball and putting it in the device. This is a method in which one ball is uniformly directed toward the target device In order to determine the cause of a golf ball hit or to move to the left or right due to the impact motion, it is easy to determine whether the problem is caused by the balance of the putter striking or the condition of the golfer In addition to not being able to grasp, it is also difficult to grasp the sense of balance of consistent putter strike because it is difficult to grasp the cause even if the golf ball is well advanced as intended.

One example of a recently proposed putter is a putter in which a line of sight of a golf ball and a line of sight of the head, which is the upper end of the putter head, are arranged at right angles to the putter face, Since a putter having a pattern of a golf ball is proposed, it is required to develop a technique for performing a golf practice using a putter using a line of sight in the technical field.

[Related Technical Literature]

1. Putter Practice Putter and Putter for Correcting Putting Swing and Putting Swing Correcting Apparatus Having It (Patent Application No. 10-2001-0066280)

2. Putter of golf club having the effect of exercise and recreation (Patent Application No. 10-2006-0015693)

SUMMARY OF THE INVENTION The present invention has been made to solve the above-mentioned problems, and it is an object of the present invention to provide a golf club head capable of outputting an effect sound, A golf putter having a static practice function for making it possible to promptly confirm whether or not static elimination has been performed due to a difference in sound effect by outputting an effect sound representing a sound effect and a golf putter having a static exercise function, .

In addition, the present invention provides an analysis method of a golf ball according to an impact angle of the golf ball and an analysis of whether the ball is hit by a golf ball, A golf putter having an exercise function, and a golf putter having a net practice function.

In addition, the present invention allows an output of one of a plurality of puncture sound effects to be stored so as to match an impact angle of the analyzed golf ball or an acoustic wave-like attenuation rate, and then detects an impact angle or an acoustic- A golf putter having a static practice function for allowing a feeling of a golf putting practice to be felt only by a user's effect sound, and a golf putter equipped with a static practice function, Method.

However, the objects of the present invention are not limited to the above-mentioned objects, and other objects not mentioned can be clearly understood by those skilled in the art from the following description.

In order to achieve the above object, a golf putter having a static practice function according to an embodiment of the present invention includes a head front portion, a head top portion, a putter head divided into a head rear portion, and a golf putter comprising a shaft and a grip An attachment type static practice device which is detachably attached to the rear surface of the head for outputting a pitched sound when the golf ball meets the head front part and outputting a negative sound effect when the golf ball is in a non-tacky state to the head front part; And a control unit.

At this time, the attachment type static practice device is formed by sequentially inserting a piezoelectric element array, an elastic wave sensor portion, an FPCB, and a speaker portion into a cylindrical housing having one side opened, and the piezoelectric element array, And the speaker unit and the FPCB are interconnected through an I / O interface in the FPCB so that signals and data can be transmitted and received.

Preferably, the speaker portion is formed in a film-like shape and has a structure protruding outward from the rear face of the head when the attachment-type regular practice device is inserted and fixed to the rear face of the head.

The FPCB may further include: the I / O interface; A storage unit; And sensing data from the piezoelectric element array and the seismic sensor unit via the I / O interface, using the sensing data to determine whether the golf ball is impacted negatively or not, A static practice module for extracting a pseudo sound effect sound or an unauthorized sound effect sound stored in the sound output unit and outputting it to the speaker through the I / O interface; .

In the piezoelectric element array, it is preferable that the reference piezoelectric element (RP) and the plurality of piezoelectric elements are formed in a plurality of rows and columns, and that there is a spacing interval between the piezoelectric elements so that they are not affected by the pressure sensing between the piezoelectric elements Do.

It is preferable that a reference piezoelectric element indicator is formed on the upper surface of the head to indicate that the reference piezoelectric element RP included in the piezoelectric element array is located at a lower portion in the vertical direction.

The static practice module may further include: impact sensing means for receiving an impact sensing signal from one of the piezoelectric elements of the piezoelectric element array through the I / O interface; And feedback control means for controlling to output a pitched sound to the speaker when the piezoelectric element receiving the impact detection signal is located at a position corresponding to the pitched range with reference to the reference piezoelectric element (RP). .

Preferably, the feedback control means controls the output of the negative-phase-noise effect sound to the speaker when the piezoelectric element receiving the impact-sensing signal is not located in the range of the reference range based on the reference piezoelectric element RP Do.

The static practice module analyzes the impact detection signal to detect a piezoelectric element having an impact on the reference piezoelectric element RP in the piezoelectric element array, Detection means for receiving an elastic wave type detected by the sensor unit through the I / O interface; .

The rectifying module may include a vertical line ref on the cross section of the reference piezoelectric element RP and a point on which the reference piezoelectric element RP is formed and a center of gravity an impact angle calculating means for calculating an impact angle alpha formed by a straight line connecting the pawl and the pawl; .

In this case, diameter information of the golf ball is previously stored on the storage unit so that the center-of-gravity point (p) of the golf ball is detected by the impact angle calculating unit, and the center-of-gravity point (P) It is preferable that the center of the golf ball.

It is preferable that the impact angle calculating means determines whether or not the impact angle is out of a preset angular range stored in advance on the storage portion.

In addition, the feedback control means may include a plurality of negative feedback sensors corresponding to the shock sensitivity range step to which the impact angle alpha belongs when the impact angle alpha is out of the constant angle range, It is preferable that one of the sound effects is extracted from the storage unit in a random manner and then the I / O interface is controlled to output the extracted non-sound effect sound to the speaker unit.

In addition, the feedback control means may be configured to match the impact angle (?) Randomly extracted with respect to the impact angle (?) To the impact angle (?) And store the feedback information in the storage unit as feedback information, O interface (I / O interface) so as to output to the speaker unit an uneven sound effect sound previously output by utilizing the feedback information and stored in the storage unit when the same impact angle? .

The static practice module may further include elastic wave analyzing means for calculating an attenuation factor of the elastic wave type when the impact angle does not deviate from the static angle range according to the judgment of the impact angle calculating means. .

It is also preferable that the elastic wave analyzing means determines whether or not the attenuation factor? Is out of a predetermined attenuation factor range set in the storage unit.

In addition, the feedback control unit may control the feedback control unit such that, when the deceleration rate β does not deviate from the constant decay rate range according to the determination of the regular practice module, one of a plurality of purging sound effects corresponding to the decay rate range step to which the decay rate O interface by controlling the I / O interface to output the extracted pseudo sound effect to the speaker unit.

Also. Wherein the feedback control means matches the attenuation factor (?) Randomly extracted for the attenuation factor (?) To the attenuation factor (?), Stores the resultant information as feedback information in the storage unit, In the case where the attenuation factor beta is calculated by the acoustic wave analyzing means, it is preferable that the I / O interface is controlled so as to output feedback information to the speaker unit before outputting the feedback information to the speaker unit.

In order to achieve the above object, a method of practicing a golf putter using a golf putter having a static practice function according to an embodiment of the present invention is characterized in that the static practice module comprises a piezoelectric element array including a reference piezoelectric element (RP) A first step of receiving an impact detection signal from one of the I / O interfaces; And a second step of the pseudo practice module outputting a pseudo sound effect when the piezoelectric element on which the impact sensing signal is received is at a position corresponding to a range of refraction on the basis of the reference piezoelectric element (RP). .

In this case, in the second step, it is preferable that the static practice module outputs a negative effect sound when the piezoelectric element, on which the impact sensing signal is received, is not located in the range of refraction on the basis of the reference piezoelectric element RP Do.

In the second step, the static practice module analyzes the impact detection signal to detect a piezoelectric element in which an impact is generated on the basis of the reference piezoelectric element (RP) in the piezoelectric element array, A second step of receiving an elastic wave type detected by the elastic wave sensor unit at the time of reception through the I / O interface; .

In the second step, after the second-first step, the neural simulation module calculates a difference between a vertical line ref on the cross section of the reference piezoelectric element RP, a point where the reference piezoelectric element RP is formed, A second step (2-2) of calculating an impact angle (alpha) formed by a line ver connecting the center of gravity (p) of the golf ball located on the front surface of the detected piezoelectric element; .

In the step 2-2, the diameter information of the golf ball is stored in advance on the storage unit so that the center of gravity p of the golf ball is detected by the regular practice module, (P) is preferably a center portion of the spherical golf ball.

The second step may include a second step of determining whether or not the static practice module is out of a preset angular range stored on the storage unit with respect to the impact angle? Step 3; .

In the second step, when the impact angle is out of the range of the refraction angle in accordance with the determination of the step 2-3, the refraction / (2-4) of extracting one of a plurality of corresponding negative sound effects in the storage unit in a random manner; A step (2-5) of controlling the I / O interface so that the static practice module outputs the extracted non-linear effect sound to the speaker unit; And a step 2-6 of matching the nontrivial sound effect randomly extracted with respect to the impact angle? To the impact angle? And storing the result as feedback information in the storage unit. .

In the second step, if the impact simulation module calculates the same impact angle?, Which is based on the impact on the golf ball after the step 2-6, And controlling the I / O interface to output an uneven sound effect sound stored in the storage unit to the speaker unit; .

In the second step, when the impact angle? Does not deviate from the refraction angle range according to the determination of the step 2-3, the refraction simulation module calculates the attenuation factor? Of the received elastic wave type Step 2-4 of computing; .

The second step may further include a step 2-5 of determining whether or not the deceleration rate module is out of a predetermined deceleration rate range set in the storage unit after the step 2-4. .

In the second step, when the decay rate (β) is out of the range of the static attenuation rate according to the judgment of the step 2-5, the static practice module corresponds to the shock sensitivity range step in which the impact angle (α) (2-6) extracting one of a plurality of negative effect sounds in the storage unit in a random manner; (Ii) controlling the I / O interface so that the static practice module outputs the extracted non-linear effect sound to the speaker unit; And a step 2-8 of matching the nontrivial sound effect randomly extracted with respect to the impact angle alpha to the impact angle alpha and storing the feedback sound information in the storage unit as feedback information. .

In the second step, if the damping rate (β) is calculated at the same time in accordance with the strike to the golf ball after the step 2-8, the dummy practice module outputs the damping factor (2-9) controlling the I / O interface to output an uneven sound effect sound stored in the storage unit to the speaker unit; .

In the second step, if the decay rate (β) does not deviate from the target decay rate range according to the determination in the step 2-5, the quasi practice module corresponds to the decay rate range step to which the decay rate (β) belongs (2-6) extracting one of a plurality of puncture sound effects from the storage unit in a random manner; (2-7) controlling the I / O interface so that the quasi-practice module outputs the extracted quasi-effect sound to the speaker unit; And a step 2-8 of matching the pseudo sound effect randomly extracted with respect to the attenuation factor? To the attenuation factor? And storing the matched sound effect information as feedback information in the storage unit. .

In the second step, if the damping rate (β) is calculated at the same time in accordance with the strike to the golf ball after the step 2-8, the dummy practice module outputs the damping factor (2-9) controlling the I / O interface to output a pseudo sound effect sound stored in the storage unit to the speaker unit; .

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view of a golf putter according to an embodiment of the present invention; FIG.
Fig. 3 is a view specifically showing the front face (Fig. 3a) and the rear face (Fig. 3b) of the putter head in Fig.
Fig. 4 is a view for explaining a laminated structure constituting the attachment type static practice device in Fig. 3; Fig.
Fig. 5 is a view for explaining the internal structure of the FPCB included in the attachment type static dressing practice device of Fig. 3; Fig.
Fig. 6 is a view for explaining the principle of impact angle analysis between a golf ball and a putter executed by a static practice module included in the attachment type static practice device of Fig. 3; Fig.
FIG. 7 is a view for explaining the principle of an acoustic wave analysis executed by a static practice module included in the attachment type static practice device of FIG. 3;
FIG. 8 is a flowchart illustrating a static practice method using a golf putter having a static practice function according to an embodiment of the present invention. FIG.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a detailed description of preferred embodiments of the present invention will be given with reference to the accompanying drawings. In the following description of the present invention, detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

In the present specification, when any one element 'transmits' data or signals to another element, the element can transmit the data or signal directly to the other element, and through at least one other element Data or signal can be transmitted to another component.

1 and 2 are views showing a golf putter 100 (hereinafter referred to as a putter) having a puncture practice function according to an embodiment of the present invention. 1 and 2, a putter 100 includes a putter head 110, a shaft 120, and a grip 130.

Fig. 3 is a diagram specifically showing the front face (Fig. 3a) and the rear face (Fig. 3b) of the putter head 110 in Fig. 3, the putter head 110 can be divided into a head front portion 111, a head top portion 112, a head rear portion 113, and an attachable static practice device 114.

Fig. 4 is a view for explaining a structure in which an attachable static practice device 114, which is detachably inserted into the head rear portion 113 in Fig. 3, is laminated. 5 is a view for explaining the internal structure of the FPCB (Flexible Printed Circuit Board) 114a included in the attachable static attitude practice device 114 of FIG. 6 is a diagram for explaining the principle of impact angle analysis between the golf ball 200 and the putter 100 executed by the static practice module 20 included in the attachable static attitude practice device 114 of FIG. 7 is a view for explaining the principle of acoustic wave analysis executed by the static practice module 20 included in the attachable static attitude practice device 114 of FIG.

Referring to Figs. 1 to 7, the head front portion 111 is positioned with the piezoelectric element arrays 114c of the stick-shaped static practice device 114 detachably inserted into the head rear portion 113 immediately inside the surface. On the other hand, the head front portion 111 is a portion directly hit by the golf ball 200 according to the swing of the putter 100 of the golfer.

The head upper surface portion 112 is formed with a reference piezoelectric element indicator 112a as a line of sight and a shaft insertion end 112b. The reference piezoelectric element indicator 112a is formed on the top surface portion 112 of the head formed at right angles to the head front portion 111 on which the reference piezoelectric element RP is formed. When the golfer applies the golf ball 200, Provide a recognized reference point.

Since the reference piezoelectric element RP indicated by the reference piezoelectric element indicator 112a on the head upper surface portion 112 is actually formed in the central region inside the head front portion 111, And the front face 111 face is formed toward the direction in which it is viewed. The shaft insertion end 112b is formed so that the shaft 120 is inserted into the putter head 110. [

The head rear portion 113 is provided with an insertion type attaching and detaching practice device 114 for outputting a correcting effect sound when the golf ball 200 is corrected by the head front portion 111 with accuracy and, .

4 and 5, the attachment type static practice device 114 includes an FPCB 114a, an elastic wave sensor portion 114b, a piezoelectric element array 114c, a speaker portion 114d, and a housing 114e .

A piezoelectric element array 114c, an acoustic wave sensor part 114b and an FPCB 114a are inserted into a cylindrical housing 114e which is opened at one side and a film type speaker part 114d is inserted into a lower part of the FPCB 114a And protrudes to the outside of the head rear portion 113. [ Here, the use of the FPCB 114a solves the problem of damaging the case of using a general PCB substrate due to an impact caused by the blowing of the golf ball 200. [

Referring to FIG. 5, the FPCB 114a includes an I / O interface 10, a static practice module 20, a storage unit 30, and a power supply unit 40. The power supply unit 40 supplies necessary power to the static practice module 20.

The I / O interface 10 receives signals between the static practice module 20 in the FPCB 114 and the piezoelectric element array 114c, the acoustic wave sensor portion 114b, and the speaker portion 114d outside the FPCB 114, Data transmission / reception is performed.

The piezoelectric element array 114c is characterized in that the reference piezoelectric element RP and a plurality of piezoelectric elements are formed in a plurality of rows and columns and that there is a separation interval between the piezoelectric elements so that the pressure sensing between the piezoelectric elements is not influenced by each other .

The static practice module 20 includes an impact detection means 21, a detection means 22, an impact angle analysis means 23, a feedback control means 24 and an elastic wave analysis means 25. In this specification, a module may mean a functional and structural combination of hardware for carrying out the technical idea of the present invention and software for driving the hardware. For example, the module may mean a logical unit of a predetermined code and a hardware resource for executing the predetermined code, and it does not necessarily mean a physically connected code or a kind of hardware. Can be easily deduced to the average expert in the field of < / RTI >

The impact sensing means 21 controls the I / O interface 10 to receive an impact sensing signal, which is a type of sensing data, from one of the piezoelectric element arrays 114c including the reference piezoelectric element RP.

The detection means 22 analyzes the impact detection signal received by the impact detection means 21 to detect the piezoelectric element in which the impact has occurred in the piezoelectric element array 114c, O interface 10 to receive the elastic wave type detected by the elastic wave sensor portion 114b at the time of reception. On the other hand, the piezoelectric element in which the impact has occurred can be the reference piezoelectric element RP (see Fig. 6A).

6, the impact angle analyzing means 23 includes a vertical line ref of the cross section of the reference piezoelectric element RP, a point at which the reference piezoelectric element RP is formed and a point at which the piezoelectric element RP detected by the detecting means 22, And an impact angle [alpha] formed by a line ver connecting the center of gravity p of the golf ball 200 positioned on the front side. In order to detect the center-of-gravity point p of the golf ball 200, the net-practice module 20 preferably stores the diameter information of the golf ball 200 on the storage unit 30 in advance. Generally, The center of gravity P corresponds to the center of the spherical golf ball 200.

The impact angle analyzing means 23 determines whether or not the impact angle? Is out of the preset angular range stored in advance on the storage unit 30, and then, based on the determination result, the feedback control means 24 or the elastic wave analysis means (25). The impact angle analyzing means 23 analyzes the impact angle? As a straight line when the impact angle? Is 0 degree as shown in FIG. 6A.

When the impact angle? Is out of the range of the correction angle as a result of the determination by the impact angle analysis unit 23, the feedback control unit 24 matches the impact sensitivity range step to which the impact angle? And controls the I / O interface 10 to output to the speaker unit 114d after extracting one of a plurality of negative effect sounds stored in the speaker unit 114d in a random manner.

Thereafter, the feedback control means 24 matches the non-target sound effects randomly extracted with respect to the impact angle? To the impact angle?, And stores the result as feedback information in the storage unit 30. Thus, by storing one negative effect sound and the impact angle alpha as one piece of feedback information, the feedback control means 24 can utilize the feedback information at the time of outputting the negative effect sound according to the same impact angle alpha The non-random effect sound outputted before is not outputted in the random manner, so that the golfer is output the consistent negative sound effect according to the impact angle (?).

The elastic wave analyzing means 25 uses the elastic wave type detected by the detecting means 22 to determine the attenuation rate? Of the elastic wave type when the impact angle? . In an embodiment of the present invention, when the magnitude of the maximum peak value in one period of the acoustic wave is L1 and the magnitude of the maximum peak value in the next period is L2, as shown in FIG. 7, ) Can be calculated by L2 / L1.

The elastic wave analyzing means 25 determines whether the calculated attenuation factor beta is out of the predetermined attenuation ratio range set in the storage unit 30 and then notifies the feedback control means 24 of the judgment result.

The feedback control means 24 controls the number of steps of the shock sensitivity range to which the impact angle alpha calculated by the impact angle analyzing means 23 belongs as a result of the determination by the elastic wave analyzing means 25, O interface 10 so as to output one of the random sound effects to the speaker unit 114d after extracting one of the random sound effects from the storage unit 30 in a random manner, The sound effect is matched to the impact angle alpha and stored in the storage unit 30 as feedback information.

In another embodiment of the present invention, the feedback control means 24 controls the attenuation rate range step (b) to which the attenuation factor (?) Calculated by the elastic wave analysis means (25) belongs when the result of the determination by the acoustic wave analysis means (25) O interface 10 to randomly output one of the plurality of negative sound effects corresponding to the input sound signal to the speaker unit 114d in a random manner, The extracted non-linear sound effects may be matched to the attenuation factor () and stored in the storage unit 30 as feedback information.

On the other hand, when the elasticity analyzing means 25 does not exceed the delta attenuation ratio range, the feedback control means 24 stores one of the plurality of delta sound effects corresponding to the attenuation rate range to which the attenuation rate β belongs in a random manner O interface 10 so as to output to the speaker unit 114d after extracting the random effects from the input unit 30 and matching the attenuation factor beta randomly extracted with respect to the attenuation factor? And stores it in the storage unit 30.

FIG. 8 is a flowchart illustrating a static practice method using a golf putter having a static practice function according to an embodiment of the present invention. 1 to 8, the static practice module 20 receives an impact detection signal from one piezoelectric element of the piezoelectric element array 114c including the reference piezoelectric element RP through the I / O interface 10 (S11).

After the step S11, the static practice module 20 analyzes the impact detection signal and detects the piezoelectric element in which the impact is generated on the basis of the reference piezoelectric element RP in the piezoelectric element array 114c. In step S11 O interface 10 (step S12). In this case, the elastic wave type detected by the elastic wave sensor part 114b at the time of receiving the impact sensing signal of the first embodiment is received via the I / O interface 10.

After step S12, the nettening practice module 20 calculates the position of the reference piezoelectric element RP on the basis of the vertical line ref of the cross section of the reference piezoelectric element RP, the position at which the reference piezoelectric element RP is formed, An impact angle alpha between the straight line ver connecting the center of gravity p of the golf ball 200 is calculated (S13).

After step S13, the nettening practice module 20 determines whether the impact angle [alpha] calculated in step S13 is out of the preset angular range stored in advance on the storage section 30 (S14) .

As a result of the determination in step S14, if the out-of-range angular range is exceeded, the neural simulation module 20 calculates one of a plurality of negative-tone sound effects corresponding to the impact sensitivity range step to which the impact angle alpha calculated in step S13 belongs O interface 10 to output to the speaker unit 114d after extracting the random sound effect from the storage unit 30 and outputting the random sound effect randomly extracted with respect to the impact angle alpha to the impact angle alpha And stores the result as feedback information in the storage unit 30 (S15). By storing one negative effect sound and the impact angle alpha as feedback information in this way, the nettening practice module 20 can use the feedback information in the case where it corresponds to the same impact angle alpha in the future, And outputting the unsteady effect sound that has been output, thereby causing the golfer to output a consistent negative sound effect according to the impact angle (alpha).

On the other hand, if it is determined in step S14 that the angular range is not out of the range of the angle of refraction, the regular practice module 20 calculates the acoustic wave-like attenuation factor? Using the acoustic wave type detected in step S12 (S16).

After step S16, the regular practice module 20 determines whether the decay rate calculated in step S16 has exceeded the predetermined decay rate range set in the storage unit 30 (S17).

As a result of the determination in step S17, if the out-of-squared decay rate is out of the range, the practice module 20 returns to step S15 to determine whether the impact angle range calculated in step S13 corresponds to the impact sensitivity range step O interface 10 to extract one of a plurality of negative sound effects randomly from the storage unit 30 and output to the speaker unit 114d, The uneven sound effect sound is matched to the impact angle alpha and stored in the storage unit 30 as feedback information (S15).

On the other hand, if it is determined in step S17 that the outline of the attenuation rate range does not deviate from the outline attenuation rate range, the exe practice module 20 determines one of the plurality of exter- nal sound effects corresponding to the attenuation rate range to which the attenuation rate calculated in step S16 belongs O interface 10 to output to the speaker unit 114d after extracting the random effect from the storage unit 30 in a random manner and matching the attenuation factor? And stores it in the storage unit 30 as feedback information.

The present invention can also be embodied as computer-readable codes on a computer-readable recording medium. A computer-readable recording medium includes all kinds of recording apparatuses in which data that can be read by a computer system is stored.

Examples of the computer-readable recording medium include a ROM, a RAM, a CD-ROM, a magnetic tape, a floppy disk, an optical data storage device and the like, and also implemented in the form of a carrier wave (for example, transmission over the Internet) .

The computer readable recording medium may also be distributed over a networked computer system so that computer readable code can be stored and executed in a distributed manner. And functional programs, codes, and code segments for implementing the present invention can be easily inferred by programmers skilled in the art to which the present invention pertains.

As described above, preferred embodiments of the present invention have been disclosed in the present specification and drawings, and although specific terms have been used, they have been used only in a general sense to easily describe the technical contents of the present invention and to facilitate understanding of the invention , And are not intended to limit the scope of the present invention. It is to be understood by those skilled in the art that other modifications based on the technical idea of the present invention are possible in addition to the embodiments disclosed herein.

10: I / O interface
20: Static Practice Module
21: Shock detection means
22:
23: impact angle analysis means
24: Feedback control means
25: Seismic wave analysis means
30:
40:
100: Putter
110: Putter head
111: head front part
112: head upper surface portion
112a: reference piezoelectric element indicator
112b: shaft insertion end
113: head rear portion
114: Attachment type static practice device
114a: FPCB
114b:
114c: Piezoelectric element array
RP: Reference piezoelectric element
114d: speaker portion
120: shaft
130: grip
200: Golf ball

Claims (32)

1. A golf putter comprising a head front portion, a head top portion, and a head rear portion, the golf putter comprising a shaft and a grip,
An attachment type static practice device which is detachably mounted on the rear face of the head for outputting a pitched sound when the golf ball meets the face of the head with the head front portion and outputting a negative sound effect when the golf ball is pitched by the head front portion; And a golf putter having a static practice function.
The device according to claim 1, wherein the stick-
A piezoelectric element array, an acoustic wave sensor unit, an FPCB, and a speaker unit are sequentially inserted into a tubular housing having one side opened,
Wherein the piezoelectric element array, the elastic wave sensor unit, and the speaker unit and the FPCB are interconnected through an I / O interface in the FPCB so that signals and data can be transmitted and received. putter.
The speaker apparatus according to claim 2,
And a protruding portion protruding outwardly from the rear surface of the head when the attachment type static attitude practice device is inserted and fixed to the rear surface of the head.
4. The FPCB of claim 3,
The I / O interface; A storage unit; And
Receives sensing data from the piezoelectric element array and the elastic wave sensor unit through the I / O interface, and determines whether the golf ball is impacted by static or not, using the sensing data, A static practice module for extracting a pseudo sound effect sound or an unauthorized sound effect sound stored in the sound output module and outputting it to the speaker through the I / O interface; Wherein the golf putter has a static practice function.
The piezoelectric element array according to claim 4,
Characterized in that the reference piezoelectric element (RP) and a plurality of piezoelectric elements are formed in a plurality of rows and columns, and each of the piezoelectric elements is spaced apart from each other and is not affected by pressure sensing between the piezoelectric elements. Golf Putter.
[6] The apparatus according to claim 5,
Wherein a reference piezoelectric element indicator is formed to indicate that the reference piezoelectric element (RP) included in the piezoelectric element array is positioned at a lower portion in the vertical direction.
[7] The method according to claim 6,
An impact detection means for receiving an impact detection signal from one of the piezoelectric elements of the piezoelectric element array through the I / O interface; And
Feedback control means for controlling to output a pitched sound to the speaker when the piezoelectric element receiving the impact detection signal is located at a position corresponding to the pitched range based on the reference piezoelectric element (RP); Wherein the golf putter has a static practice function.
8. The apparatus according to claim 7,
Wherein the control unit controls the speaker to output a negative effect sound to the speaker when the piezoelectric element on which the impact detection signal is received is not located in a range corresponding to the reference range based on the reference piezoelectric element (RP) Golf Putter.
[7] The method according to claim 7,
Detecting the piezoelectric element in which the impact is generated on the basis of the reference piezoelectric element (RP) in the piezoelectric element array by analyzing the impact detection signal, and detecting the piezoelectric element in which the impact is detected based on the elastic wave type Via the I / O interface; The golf putter as claimed in claim 1,
[7] The method according to claim 7,
A straight line (ver) connecting the vertical line ref on the cross section of the reference piezoelectric element RP and the center of gravity p of the golf ball located on the detected front face of the piezoelectric element RP, An impact angle calculating means for calculating an impact angle? The golf putter as claimed in claim 1,
The method of claim 10,
Wherein diameter information of the golf ball is previously stored on the storage unit so that the center of gravity p of the golf ball is detected by the impact angle calculating unit, Wherein the golf putter is a golf putter having a static practice function.
12. The apparatus according to claim 11,
And determines whether or not the impact angle (alpha) is out of a preset angular range stored in advance on the storage unit.
The control apparatus according to claim 12,
Wherein one of the plurality of negative sound effects corresponding to the impact sensitivity range to which the impact angle belongs is randomly generated when the impact angle is out of the range of the constant angles, And controlling the I / O interface so as to output the extracted irregular effect sound to the speaker unit after extracting the extracted irregular sound effect sound from the storage unit.
14. The apparatus according to claim 13,
The method according to claim 1, further comprising the steps of: matching the impact angle (?) Randomly extracted with the impact angle (?) To the impact angle (?) To store the feedback information as feedback information in the storage unit wherein the control unit controls the I / O interface so as to output the previously-output unusual sound effect data to the speaker unit by using the feedback information when the impact angle calculating unit calculates the impact sound by using the feedback information, Golf putter with practice function.
[12] The system of claim 12,
Elastic wave analyzing means for calculating an attenuation factor? Of the elastic wave type when the impact angle? Does not deviate from the normal angle range according to the determination of the impact angle calculating means; The golf putter as claimed in claim 1,
[16] The method according to claim 15,
And determining whether or not the decay rate (?) Is out of a predetermined decay rate range set in the storage unit.
18. The control apparatus according to claim 16,
Wherein one of a plurality of pseudo sound effects sounds corresponding to the step of attenuation rate range to which the attenuation rate belongs is randomly selected in a random manner in a case where the attenuation rate does not deviate from the static attenuation rate range, And controlling the I / O interface to output the extracted pseudo sound effect to the speaker unit.
18. The control apparatus according to claim 17,
Wherein a randomly extracted puncture sound is matched to the attenuation factor and stored as feedback information in the storage unit, and then the same attenuation factor? Wherein the control unit controls the I / O interface so as to output to the speaker unit a pseudo sound effect sound previously stored in the storage unit by using the feedback information when calculated by the acoustic wave analyzing unit, putter.
A first step of receiving a shock sensing signal from one of the piezoelectric elements of the piezoelectric element array including the reference piezoelectric element (RP) through the I / O interface; And
A second step of outputting a pitched sound effect when the pit practice module receives the impact detection signal at a position corresponding to the pitched range based on the reference piezoelectric element RP; The golf putter according to any one of claims 1 to 3,
21. The method of claim 19,
Wherein the static practice module outputs a negative effect sound when the piezoelectric element on which the impact sensing signal is received is not located in a range corresponding to the reference range based on the reference piezoelectric element (RP) A Practice Method of Golf Practice Using Golf Putter.
21. The method of claim 19,
The static practice module analyzes the impact detection signal to detect a piezoelectric element having an impact on the reference piezoelectric element (RP) in the piezoelectric element array, and outputs the impact sensing signal to the elastic wave sensor unit A second step of receiving an elastic wave type detected by the second sensor through the I / O interface; The golf putter according to any one of claims 1 to 3,
21. The method of claim 19,
After the step 2-1, the neural simulation module includes a vertical line ref on the cross section of the reference piezoelectric element RP, a point where the reference piezoelectric element RP is formed, A second step (2-2) of calculating an impact angle alpha between a straight line ver connecting the center of gravity p of the golf ball; The golf putter of claim 1, further comprising:
23. The method of claim 22, wherein in step 2-2,
Wherein diameter information of the golf ball is previously stored on the storage unit so that the center of gravity p of the golf ball is detected by the regular practice module, And a golf putter having a static practice function.
24. The method of claim 23,
A step 2-3 of determining whether or not the static practice module is out of a preset angular range stored in advance on the storage unit with respect to the impact angle? The golf putter of claim 1, further comprising:
27. The method of claim 24,
If the impact angle alpha is out of the range of the reflex angle in accordance with the determination of step 2-3, the reflex drill module calculates a plurality of negative sound effects corresponding to the impact sensitivity range to which the impact angle alpha belongs (2-4) of extracting one from the storage unit in a random manner;
A step (2-5) of controlling the I / O interface so that the static practice module outputs the extracted non-linear effect sound to the speaker unit; And
A step 2-6 of matching the negative sound effect randomly extracted with respect to the impact angle? To the impact angle? And storing the result as feedback information in the storage unit; The golf putter of claim 1, further comprising:
27. The method of claim 24,
If, after the step 2-6, the impact angle? Is calculated at the same time in accordance with the strike against the golf ball, the static practice module outputs previously using the feedback information, (2-7) controlling the I / O interface to output an effect sound to a speaker unit; The golf putter of claim 1, further comprising:
27. The method of claim 24,
(2-4) in which, when the impact angle (α) does not deviate from the refraction angle range in accordance with the determination of the step (2-3), the refraction exercising module calculates an attenuation factor (β) of the received elastic wave type; The golf putter of claim 1, further comprising:
28. The method of claim 27,
(2-5) after the step 2-4, whether the attenuation rate (?) Is out of the predetermined attenuation rate range set in the storage unit The golf putter of claim 1, further comprising:
29. The method of claim 28,
If the decay rate (β) deviates from the target decay rate range according to the determination in the step 2-5, the quasi-practice module calculates one of a plurality of negative tone effect sounds corresponding to the impact sensitivity range step to which the impact angle (2-6) in a random manner in the storage unit;
(Ii) controlling the I / O interface so that the static practice module outputs the extracted non-linear effect sound to the speaker unit; And
A step 2-8 of matching the negative impact sound extracted randomly with respect to the impact angle? To the impact angle? And storing the result as feedback information in the storage unit; The golf putter of claim 1, further comprising:
30. The method of claim 29,
If the damping rate (β) is calculated at the same time in accordance with the strike to the golf ball after the step 2-8, the dummy exercise module outputs the dummy effect sound data previously stored in the storage unit (2) controlling the I / O interface to output the I / O interface to the speaker unit; The golf putter of claim 1, further comprising:
29. The method of claim 28,
If the attenuation ratio (β) does not deviate from the constant attenuation rate range according to the determination in the step 2-5, the static attunement module calculates one of a plurality of harmonic sound effects corresponding to the attenuation rate range to which the attenuation rate (2-6) of extracting the data from the storage unit in a random manner;
(2-7) controlling the I / O interface so that the quasi-practice module outputs the extracted quasi-effect sound to the speaker unit; And
(E2) a step of the mathematical practice module matching the damping effect sound extracted randomly with respect to the damping factor? To the damping factor? The golf putter of claim 1, further comprising:
32. The method of claim 31,
After the step 2-8, if the damping rate β is calculated at the same time in accordance with the strike against the golf ball, the dummy practice module outputs the damping effect sound previously stored by using the feedback information and stored in the storage unit (2-9) controlling the I / O interface to output to the speaker unit; The golf putter of claim 1, further comprising:

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