KR101738658B1 - Smart hand hold device and a analysing system by using the same - Google Patents

Abstract

The smart hold includes a holding portion, a fixing screw, a sensor portion, and a vibrating portion. The holding part is coupled to the artificial rock wall and has a space formed therein to cover the outside of the artificial rock wall. One end of the holding screw passes through the holding part and is fixed inside the artificial rock wall. The other end is fixed to the holding part , The sensor unit is coupled to the internal space of the holding unit so as to surround the fixing screw and detects the magnitude and direction of the pressure due to the twisting of the fixing screw and the vibrating unit is coupled to the fixing screw projecting from the back of the artificial rock wall Thereby generating vibration.

Description

TECHNICAL FIELD [0001] The present invention relates to a smart hold for indoor rock climbing and an analysis system using the smart hold.

TECHNICAL FIELD The present invention relates to a smart hold and an analysis system using the smart hold, and more particularly, to a smart hold for climbing an indoor rock climbing train for training a user's artificial rock climbing technique and an analysis system using the smart hold.

Generally, the hold for artificial rock has been stably fixed to the wall, so that it has been developed in order to prevent safety accident when the user is rotated or removed when climbing. Currently, however, technologies for recognizing a user through a touch sensor and providing a route to a user using a light emitting device are being developed.

On the other hand, as the number of people enjoying artificial rock climbing increases, the need for artificial rock climbing technology that includes the stable attachment function of the hold is basically included, and it is possible to teach beginners how to effectively climb rock climbing techniques and guide skilled techniques .

In this connection, Korean Utility Model Registration No. 20-0443410 discloses an invention of a loosening preventing fastening system for increasing the stability of an artificial rock wall holder, Korean Patent Registration No. 10-1143016 discloses an artificial rock wall structure, However, in order to increase the efficiency of rock climbing, the invention does not disclose a method for analyzing the magnitude and direction of the force applied to the rock climbing hold.

Therefore, there is an increasing need for a technique for detecting and analyzing the magnitude and direction of the force applied to the hold, thereby suggesting an effective magnitude and direction of the force.

SUMMARY OF THE INVENTION Accordingly, the present invention has been made in view of the above problems, and it is an object of the present invention to provide a smart holder including a vibrating part which forms a sensor part for sensing a magnitude and a direction of a force applied to a hold, will be.

Another object of the present invention is to provide an analysis system using the smart hold.

According to an embodiment of the present invention, the smart hold includes the hold part, the fixing screw, the sensor part, and the vibration part. The holding part is coupled to the artificial rock wall and has a space formed therein to cover the outside of the artificial rock wall. One end of the holding screw passes through the holding part and is fixed inside the artificial rock wall. The other end is fixed to the holding part , The sensor unit is coupled to the internal space of the holding unit so as to surround the fixing screw and detects the magnitude and direction of the pressure due to the twisting of the fixing screw and the vibrating unit is coupled to the fixing screw projecting from the back of the artificial rock wall Thereby generating vibration.

In one embodiment, the apparatus may further include a communication unit coupled to a rear surface of the artificial rock wall and connected to the sensor unit and the vibration unit and communicating with the outside.

In one embodiment, the sensor unit may include a plurality of sensor units arranged to be spaced apart from each other and to surround the fixing screw.

In one embodiment, each of the sensor units can sense the magnitude of the pressure applied by the set screw, respectively.

In one embodiment, the sensor unit may compare the magnitudes of the pressures sensed by the sensor units, and analyze directions in which the sensor units, which senses a relatively high pressure magnitude, are twisted in a direction in which the fixation screws twist .

In one embodiment, the hold portion may include first and second connection portions that respectively couple with the other ends of the fixing screws to fix the fixing screws.

In one embodiment, the display unit may further include a display unit disposed in an inner space of the hold unit and emitting light.

According to another aspect of the present invention, there is provided an analysis system including smart holders, a transceiver, a controller, and a display, wherein the smart holders are formed on an artificial rock wall, And transmits and receives the pressure data by wireless or wired connection to the smart holders. The controller analyzes the pressure data generated at a time difference from the smart holders Outputs the climbing path and compares the climbing path with the data of the expert, and the display displays the comparison data and the climbing path.

In one embodiment, the control unit includes an analyzing unit, a learning unit, and a guide unit. The analyzing unit analyzes the pressure data to analyze a user's climbing posture. The learning unit collects the pressure data, The comparison unit compares the comparison data with the climbing path and the pressure data, and the guide unit can receive the comparison data of the learning unit and present the climbing path capable of climbing with a minimum of force.

In one embodiment, the guide unit may display the climbing path by transmitting a light emitting signal to a smarthold to be gripped next time the user climbs.

In one embodiment, the learning unit may transmit to the display comparative data comparing and analyzing the user's climb path and the climb path of the expert.

In one embodiment, each of the smart holders includes a communication unit, a sensor unit, and a display unit. The communication unit is connected to the transceiver unit to transmit and receive data and signals. The sensor unit senses the pressure And the display unit may emit light when receiving the light emitting signal generated by the control unit.

According to the embodiments of the present invention, the analysis system can analyze the magnitude and direction of the pressure applied to the smart hold to provide an effective climbing path or climbing posture to the user climbing the artificial rock wall to improve the exercise effect or performance .

In addition, after climbing the artificial rock wall, the magnitude and direction of the pressure applied to the smart hold formed on the route of climbing through the display can be confirmed, and the magnitude and direction of the pressure The magnitude and direction of pressure applied to grip the smart hold formed on the climbing path can be improved.

The smart hold is connected wirelessly or wired to the analysis system, and can emit various colors by emitting light from the display unit. The smart hold formed along the climbing path where users can climb efficiently emits different colors An efficient climbing path can be guided to the user.

In addition, the vibrating part can vibrate in the sense of compensation when the smart hold is grasped by the control part guided to the user, and vibrate in the sense of warning when the user does not grasp the smart hold as guided by the control part, When a user climbs a rock and achieves a new climbing record as compared to other users connected online, it can be used to vibrate and interest the game. As a result, the user can be interested in climbing habits And can be usefully used.

Further, the sensor unit can be formed close to the periphery of the fixing screw to sense the direction and size of the pressure generated when the user grasps the smart hold, so that the sensor unit can detect the user's correct gripping method, posture, It is possible to show the advantage.

1 is a perspective view illustrating a smart hold according to an embodiment of the present invention.
FIG. 2 is a perspective view showing the internal structure between AA 'of the SmartHold of FIG. 1; FIG.
FIG. 3 is a cross-sectional view showing the internal structure between AA 'of SmartHead of FIG. 2; FIG.
4 is a perspective view showing the sensor unit of Fig.
5 is a perspective view showing an example of another state of the sensor part and the fixing screw in Fig.
6 is a block diagram illustrating an analysis system using smart hold of FIG.
7 is a block diagram illustrating the smart hold of FIG.
8 is a perspective view showing an example of an analysis method of the control unit of FIG.
9 is a perspective view showing an example of the operating state of the guide portion in Fig.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, a smart hold and an analysis system using the smart hold according to embodiments of the present invention will be described in detail with reference to the accompanying drawings. While the present invention has been described in connection with what is presently considered to be the most practical and preferred embodiment, it is to be understood that the invention is not limited to the disclosed embodiments. It is to be understood, however, that the invention is not intended to be limited to the particular forms disclosed, but on the contrary, is intended to cover all modifications, equivalents, and alternatives falling within the spirit and scope of the invention. Like reference numerals are used for like elements in describing each drawing. The terms first, second, etc. may be used to describe various components, but the components should not be limited by the terms. The terms are used only for the purpose of distinguishing one component from another. The terminology used in this application is used only to describe a specific embodiment and is not intended to limit the invention. The singular expressions include plural expressions unless the context clearly dictates otherwise. In the present application, the term "comprises" or "comprising ", etc. is intended to specify that there is a stated feature, figure, step, operation, component, But do not preclude the presence or addition of one or more other features, integers, steps, operations, elements, parts, or combinations thereof.

Unless defined otherwise, all terms used herein, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art to which this invention belongs. Terms such as those defined in commonly used dictionaries are to be interpreted as having a meaning consistent with the contextual meaning of the related art and are to be interpreted as either ideal or overly formal in the sense of the present application Do not.

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

1 is a perspective view illustrating a smart hold according to an embodiment of the present invention. 2 is a perspective view showing the internal structure between A-A 'of Smart Hold in Fig. 1; 3 is a cross-sectional view showing the internal structure between A-A 'of Smart Hold in Fig. 4 is a perspective view showing the sensor unit of Fig.

1 to 4, the smarthold 200 includes a communication unit 210, a sensor unit 220, a display unit 230, a vibration unit 240, a hold unit 250, a cable 260, (Not shown).

The sensor unit 220 includes a plurality of sensor units, for example, a first sensor unit 221, a second sensor unit 222, a third sensor unit 223, a fourth sensor unit 224, A fifth sensor unit 225, a sixth sensor unit 226, a seventh sensor unit 227 and an eighth sensor unit 228. The display unit 230 may include a power supply unit 231 and LEDs 232 The hold unit 250 includes a first connection unit 251 and a second connection unit 252.

The smart holder 200 is coupled to the artificial rock wall 600 and one end of the fixing screw 270 passes through the smart holder 200 and is fixed to the inside of the artificial rock wall 600 without shaking. The other end of the fixing screw 270 is engaged with the holding part 250 so that the smart holder 200 is firmly fixed to the artificial rock wall 600.

The structure of the hold part 250 may be easily formed by hand, or the hold part 250 formed in the artificial rock wall 600 may have various structures in order to configure various difficulties similar to actual rock walls. have. A space is formed in the hold part 250 and the sensor part 220 and the display part 230 are formed in an inner space of the hold part 250.

The first connection part 251 and the second connection part 252 protrude into the holding part 250 so that the other end of the fixing screw 270 is fixed to the inside of the holding part 250, And the other end of the fixing screw 270 is prevented from passing through the smart holder 200 and moving to the artificial rock wall 600.

The display unit 230 may emit light in a color indicated by the light emission signal when it receives the light emission signal transmitted from the guide unit, which will be described later. The color may represent a single color, or alternatively may be used to distinguish between the user's left hand and foot and the right hand and foot, and may emit colors for each of the left hand, right hand, left foot or right foot. Also, the display unit 230 can emit a specific sound at the same time as the light emission, so that the user can easily find the position of the smart hold 200 to emit light.

The sensor unit 220 is formed inside the hold unit 250 and may be coupled to the surface of the artificial rock wall 600 formed in the hold unit 250. The sensor unit 220 is formed to surround the fixing screw 270 so that when the user grasps the holding unit 250 and applies pressure in various directions, The magnitude of the pressure and the direction of the pressure.

The sensor unit 220 includes a plurality of sensor units surrounding the fixing screw 270. For example, the first to eighth sensor units 221, 222, 223, 224, 225, 226, 227 , 228). In this case, the number of sensor units of the sensor unit 220 may be smaller or larger than 8 according to the size of the smart hold 200.

One end of the cable 260 may be coupled to the sensor unit 220 and the other end may extend through the interior of the artificial rock wall 600. Therefore, the pressure data including the magnitude and direction of the pressure measured through the sensor unit 220 can be transmitted to the outside through the communication unit 210.

The vibrating part 240 is coupled with the fixing screw 270 formed in the space behind the artificial rock wall 600 and a predetermined space for the vibrating part 240 is formed in the space of the artificial rock wall 600 Can be formed on the rear side.

Thus, when the vibration unit 240 starts vibrating, the vibration is transmitted to the hold unit 250 through the fixing screw 270. At this time, the user can recognize the vibration by hand or foot.

When the vibration unit 240 vibrates, the sensor unit 220 stops the pressure sensing. The vibration generated in the vibration unit 240 extends from one end of the fixing screw 270 to the other end, The hand of the user holding the holding part 250 moves to the entire holding part 250 along the first and second connecting parts 251 and 252 to feel the vibration.

The vibration unit 240 starts vibrating when receiving a vibration signal transmitted from a control unit, which will be described later, and the control unit is configured to allow the user to grasp the smart hold 200 with a minimum force or pressure, When the user holds the smart holder 200 other than the smart holder indicated by the guide unit 410, it can vibrate for warning.

In addition, when a plurality of the smart holders 200 formed on the artificial rock wall 600 emit light along the climbing path provided by the analysis of the controller, the user exits the smart holders 200 to emit light The vibrating unit 240 may vibrate to recognize that the user has gripped the smart holder 200 and that the user is out of the path.

Therefore, the vibration unit 240 can vibrate in the sense of compensation when the user grasps the smart hold 200 as the controller guides the user, and conversely, when the user grasps the smart hold 200 as guided by the controller, The user can vibrate in the sense of warning and if the user achieves a new climbing record as compared with other users who are online while climbing in the form of a game, .

The communication unit 210 is connected to the vibration unit 240 on the back of the artificial rock wall 600 and transmits and receives pressure data generated in the smart hold 200 in a wireless or wired manner, Can help you climb the rock.

Therefore, it is possible to present the rock climbing information or guide optimized for each user through various analyzes while transmitting and receiving the pressure signal and the light emission signal generated while using the smart hold 200 through the communication unit 210 to the outside have.

4, the sensor unit 220 forms a cylindrical space through which the fixing screw 270 passes, and the first to eighth sensor units 221 and 222 , 223, 224, 225, 226, 227, 228 are arranged at a certain distance.

The first to eighth sensor units 221, 222, 223, 224, 225, 226, 227, and 228 are each formed to be long along the cylindrical space while protruding toward the inside of the cylindrical space.

Each of the first through eighth sensor units 221, 222, 223, 224, 225, 226, 227 and 228 includes information on a formed position. The pressure applied portion senses the pressure when the pressure is applied, And the direction in which the pressure is applied.

For example, when the first sensor unit 221 and the second sensor unit 222 detect the pressure by the pressure applied to the holding unit 250 and the torsion of the fixing screw 270, , The sensor unit 220 may analyze that the user pushes the smart hold 200 to a position where the first and second sensor units 221 and 222 are formed.

5 is a perspective view showing an example of another state of the sensor part and the fixing screw in Fig.

5, when the user grasps the smart holder 200 and the fixing screw 270 is pressed by the pressure of the holding part 250 and the first and second connection parts 251 and 252 Indicating a state of being twisted in one direction.

The fixing screw 270 is twisted in a first direction to press the first and eighth sensor units 221 and 228 and is spaced apart from the fifth and sixth sensor units 225 and 226, The sensor unit 220 can analyze that the user holds the smart holder 200 while applying pressure toward the first direction.

In addition, each of the first sensor unit 221 and the eighth sensor unit 228 can sense the magnitude of the pressure differently applied thereto, and the magnitude of the pressure applied to the first sensor unit 221 The first sensor unit 221 and the eighth sensor unit 228 are arranged such that the first sensor unit 221 and the eighth sensor unit 228 are connected to the first sensor unit 221 and the eighth sensor unit 228, 1 sensor unit 221 as shown in FIG.

In contrast, when the magnitude of the pressure applied to the second sensor unit 228 is greater than the magnitude of the pressure applied to the first sensor unit 221, And the eighth sensor unit 228, between the first sensor unit 221 and the eighth sensor unit 228.

6 is a block diagram illustrating an analysis system using smart hold of FIG. 7 is a block diagram illustrating the smart hold of FIG.

The smart hold analysis system 100 according to an exemplary embodiment of the present invention includes a smart hold 200, a transceiver 300, a controller 310, hardware 320, a display 330, and a database 340 .

The smart hold 200 includes a communication unit 210, a sensor unit 220, a display unit 230 and a vibration unit 240. The control unit 310 includes an analysis unit 400, Unit 410 and a learning unit 420. [

The analytical system 100 uses the smart hold 200 formed on the artificial rock wall 600 to allow the users who enjoy sports climbing to apply pressure to the smart hold 200, A climbing path, and a posture of a user by detecting the size and direction of the climbing pattern, and comparing the climbing pattern, the climbing path and the posture with the climbing pattern, the climbing path and the posture of the user, .

The smart halls 200 are formed on the artificial rock wall 600 in an irregular manner on the artificial rock wall 600. Each user climbs his or her own climbing attitude and climbing path, Since the magnitude and direction of the force applied to the smart hold 200 are different, it is possible to improve the habitual posture and the size and direction of the user through the analysis system 100, thereby maximizing the exercise efficiency and improving the performance .

The smart hold 200 is formed in a variety of structures and is fixedly coupled to the artificial rock wall 600. The smart hold 200 senses the magnitude of the pressure applied by the hand holding the smart hold 200 and the direction of the pressure through an internal sensor, and outputs the pressure data to the smart holder 200. Each time the user grasps each smart hold 200 formed on the artificial rock wall 600, the smart hold 200 transmits the pressure data to the transceiver 300 in the order held by the user. .

The transceiving unit 300 receives the pressure data, transmits the pressure data to the control unit 310, analyzes the user's climbing attitude and climbing path through the pressure data, Information about the attitude that can be reduced as much as possible is derived.

The hardware 320 includes a central processing unit (CPU), a RAM (RAM), a main board, a cable, a network device, and a power unit of the computer, and provides a driving environment for driving the control unit 310. The hardware 320 includes a desktop computer, a laptop computer, a tablet, a server, and a smart phone and operates in wireless or wired connection with the display 330 and the database 340.

The display 330 includes any one of an LCD (Liquid Crystal Display), an LED Display (Light Emitting Diode Display) and an OLED (Organic Light emitting Display). The display 330 is connected to the hardware 320, The analyzed data or information may be displayed to allow the user to view his recording and analysis data after climbing the artificial rock wall 600.

The database 340 stores and backs up analytical data such as pressure data output from the smart hold 200, a climbing path analyzed by the controller 310, and climbing attitude statistically. Meanwhile, the database 340 is formed in the form of a network hard, so that a user can always browse the information stored in the database 340 and download and upload information to a smartphone connected to the network from the outside.

The analysis unit 400 analyzes the magnitude and direction of the pressure data to derive a climbing posture and a climbing path of the user and transmits the climbing posture and the climbing path of the user to the artificial rock wall and the smart hold 200 in a similar three- Can be displayed on the display (330).

In addition, the moment the user grasps the smart hold 200 on the artificial rock wall in the three-dimensional space, the direction and the magnitude of the force applied by the user's hand can be displayed on the display 330 in the form of an arrow of a vector , The greater the pressure applied by the hand, i.e., the greater the force, the longer the arrow or the thicker the arrow.

The learning unit 420 compares the pressure data and the climbing attitude and climbing path of the analysis unit 400 with the climbing pattern, climbing path and climbing attitude of the climber climbing the artificial rock wall 600 in advance, . The comparative analysis data may include a magnitude and a direction of a force that the user presses the smart holder 200 when the user holds the smart holder 200, And direction.

In addition, the climbing posture of the user analyzed through the analysis unit 400 is displayed on the display 330 in three dimensions in comparison with the climbing posture of the expert inputted in the database 340 in advance It is possible to calibrate for efficient and stable posture in climbing.

In addition, the climbing path analyzed through the analysis unit 400 is compared with the climbing path of the expert input in the database 340 in advance, and the comparison data is output, and the difference of the paths is three- So that it is possible to find an efficient and stable route for climbing the artificial rock wall.

The learning unit 420 may be configured such that the database 340 is configured in the form of a network hard or is competitive with other people using the analysis system 100 connected to the Internet when the hardware 320 is connected to the Internet Game type training in which the artificial rock wall 600 is climbed in the shortest or shortest time and competitively trained to minimize the magnitude of the pressure recorded in the pressure data after climbing the artificial rock wall 600 There are advantages to be able to.

Since the location of the smart hold 200 formed on the artificial rock wall 600 is stored in the database 340, the number of the smart hold 200 to be gripped when rock- The user can compete to reduce the number of the smart holders 200 that are grasped while ascending to a specific height on-line online, or to compete with a specific height more rapidly, thereby adding the fun of artificial rock climbing There is an advantage that the effect of training increases.

The smart hold 200 of FIG. 7 is connected to the communication unit 210 to transmit and receive pressure data generated in the smart hold 200 wirelessly or by wire to the transmission and reception unit 300, When the pressure data is analyzed, the guide unit 410 transmits an emission signal or a vibration signal to the smart hold 200 through the controller 310, thereby enabling the user to climb an efficient route .

For example, if the user loses time to search for the smarthold 200 to be gripped next time the user climbs the artificial rock wall, the controller 310 controls the user to apply a minimum force The user may transmit the light emission signal or the vibration signal to the smart hold 200 to be gripped next to allow the user to perform the rock climbing so that the display unit 230 emits light or the vibration unit 240 vibrates, So that the user can perform effective rock climbing training through the analysis system 100 without the help of a separate instructor.

The sensor unit 220 is formed inside the smart holder 200 and measures the magnitude and direction of the pressure of the hand and the finger holding the smart holder 200. Since the user can measure not only the pressure that presses the smart hold 200 but also the direction of the pressure, analyzing the pressure data generated at the moment the user grasps the smart hold 200 with both hands and feet, You can analyze your attitude.

In addition, the posture, the magnitude of the pressure, and the direction of the pressure are compared with the posture of the expert, the magnitude and direction of the pressure stored in the database 340, and the user's posture and efficient gripping method can be found.

The vibration unit 240 may be useful when the user is trained according to the guide of the controller 310. [ For example, when the user receiving the training first grasps the smart hold 200 that is too far away or is out of the climbing direction, the control unit 310 transmits the vibration signal to the smart hold 200 held by the user So that the user can take his or her hand off the smart hold 200, and can be used in various educational aspects.

8 is a perspective view showing an example of an analysis method of the control unit of FIG. 9 is a perspective view showing an example of the operating state of the guide portion in Fig.

8 and 9, when the user climbs and climbs the artificial rock wall 600 by using the left and right or right and left feet of the user, 200 are illuminated in yellow and green, respectively, to guide the user to climb.

The first vector 700 represents the direction and magnitude of the pressure that the user presses while gripping the smarthold 200 by hand and the second vector 710 represents the direction and magnitude of the pressure presented by a skilled expert And the first and second vectors 700 and 710 are displayed on the display 330 so that the user can confirm the first and second vectors 700 and 710.

8, the user grasps the smart hold 200 with one hand to support the weight of the body, and the pressure applied to the smart hold 200 is applied to the artificial rock wall 600 with both hands and both feet, The first vector 700 may be formed to be long toward the direction of the user's body.

Meanwhile, the second vector 710 indicates the magnitude and direction of pressure at the moment when a skilled expert grasps and climbs the smarthold 200. In this case, the smarthold 200, which the user has to grip with both hands, Shaped second vectors 710 of the same length are displayed on both sides of the second vector 710. Accordingly, the user can grasp the left hand with the smart hold 200 emitting yellow light of the second vector 710, thereby performing stable rock climbing.

The user can compare and analyze the magnitude and direction of the pressure exerted by other skilled professionals at the point where the user is located and the magnitude and direction of the pressure applied by the user through the display 330, You can learn to climb the rock in a more efficient and stable way.

In addition, the magnitude of the pressure of the first vector 700 formed in the smart hold 200, which is applied by the user to both the hands and both feet, is analyzed to analyze how the user is posing .

For example, if the size of the first vector 700 is uniform, the user can analyze that the smart holder 200 is climbing up the stairs in a stance to climb a ladder, When the size of the first vector 700 of the smart hold 200 is greater than the size of the first vector 700 of the smart hold 200 to which the left hand and the foot are applied, It is possible to analyze the posture in which the left foot and the hand are located in the smart hold 200.

Accordingly, the analyzer 400 may analyze the size of the first vector 700 to analyze the user's current climbing attitude, and may transmit analysis data to the guide unit 410 or the learning unit 420, The guide unit 410 may guide the smart holder 200 to be gripped next to disperse the force for grasping the smart holder 200 to the user, Stores the pressure data for the size and direction of the first vector (700) of the user and compares it with the size and direction of the first vector (700) generated when the experts grip the apparatus, And may be displayed on the display 330.

The smart hold 200 of FIG. 9 transmits an emission signal to the smart hold 200 through the guide unit 410 for efficient climbing of the artificial rock wall 600 through the analysis unit 400 Each of the smart holders 200 formed along the efficient climb path emits yellow or green, thereby presenting an efficient climb path to the user.

At this time, the left hand and the left foot of the user receive the first light emission signal 800 emitted from the guide unit 410 and place the light on the smart holders 200 emitting yellow light through the display unit 230 And the right hand and the right foot can be climbed on the artificial rock wall 600 while being positioned on the smart holders 200 emitting green light by the second light emitting signal 810 emitted from the guide part 410.

The climbing path can be guided by varying the difficulty according to the improvement of the user's skill. When the user's hand is gripped by the smart hold 200 at a close position, 200 may emit a specific sound so that the user can easily find the position of the smarthold 200. FIG.

According to embodiments of the present invention as described above, the analysis system 100 analyzes the magnitude and direction of the pressure applied to the smart hold 200 to provide the user with an effective climbing path, a climbing posture And on-line game-style training methods to guide safe and efficient climbing methods.

After the analysis system 100 and the artificial rock wall on which the smart hold 200 is formed are climbed, the smart hold 200, which is formed on the path that the user has climbed through the display 330, The magnitude and direction of the pressure applied to grip the smart hold 200 formed on the climbing path can be visually confirmed and the magnitude and direction of the pressure applied to the smart hold 200 Can be improved.

The smart holders 200 may be connected to the analysis system 100 wirelessly or by wire, and may emit various colors by emitting light from the display unit 230. The smart holders 200 may include a climbing path The smart holders 200 may emit light of different colors to guide an efficient climbing path to the user.

In addition, the vibration unit 240 may vibrate the smart holder 200 in the sense of compensation when the smart holder 200 is grasped by the controller 310 as guided by the controller 310. Conversely, when the user touches the controller 310 ) Can be vibrated in the sense of warning if not gripped as guided, and if the user achieves a new climbing record relative to other users connected online while playing the game-style rock climbing, And can be used as a method of correcting the climbing habit of the user.

In addition, the sensor unit 220 may be formed near the fixing screw 270 to sense a direction and a magnitude of a pressure generated when the user grasps the smart holder 200, The posture and the comparison information with the pressure data of the expert can be presented.

It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit or scope of the present invention as defined by the following claims. It can be understood that it is possible.

The smart hold providing an efficient rock climbing training according to the present invention and an analysis system using the smart hold have industrial applicability that can be used in schools and academies performing rock climbing drills.

100: Analysis System 200: Smart Hold
210: communication unit 220:
230: Display section 240:
250: Hold part 260: Cable
270: fixing screw 300:
310: Transceiver 320: Hardware
330: Display 340: Database
400: Analyzing section 410: Guide section
420: Learning section 600: Artificial wall
610: artificial rock 700: first vector
710: second vector 800: first emission signal
810: second emission signal

Claims (12)

A hold part coupled to the artificial rock wall and having a space formed therein and covering the outside of the artificial rock wall;
A fixing screw having one end fixed to the inside of the artificial rock wall through the holding part and the other end fixed to the holding part;
The holding space is provided with an inner space having a predetermined gap therebetween and arranged to surround the fixing screw so as to be engaged with the fixing screw and to adjust the magnitude and direction of the pressure applied to the fixing screw by the twist of the fixing screw A sensor unit including a plurality of sensor units for sensing; And
And a vibrating part coupled to the fixing screw protruding from the rear of the artificial rock wall to generate vibration and to transmit the generated vibration to the holding part through the fixing screw. The method according to claim 1,
And a communication unit coupled to a rear surface of the artificial rock wall and connected to the sensor unit and the vibration unit and communicating with the outside. delete delete The apparatus according to claim 1,
Wherein the analyzing unit analyzes the direction of the sensor unit, which senses a relatively high pressure level, by comparing the magnitudes of the pressure sensed by the sensor units, in a direction in which the fixing screw twists. The method of claim 1,
And first and second connection portions for respectively coupling with the other ends of the fixing screws to fix the fixing screws. The method according to claim 1,
And a display unit disposed in the inner space of the hold unit and emitting light. A plurality of smart holders formed on the artificial rock wall for sensing the magnitude and direction of the pressure applied to the hands or feet and outputting the sensed pressure data;
A transceiver connected to the smart holders by wireless or wire to transmit and receive the pressure data;
A control unit for analyzing the pressure data generated with a time difference from the smart holders to output a climbing path and comparing the data with expert data and outputting comparison data; And
And a display for displaying the comparison data and a climbing path,
Each of the smart holders comprises:
A hold portion coupled to the artificial rock wall;
A fixing screw having one end fixed to the holding part and the other end fixed to the inside of the artificial rock wall;
A plurality of sensor units arranged to surround the fixing screw to be spaced apart from each other and to be coupled to the fixing screw and to sense a magnitude and a direction of a pressure applied to the fixing screw by twisting of the fixing screw, ; And
And a vibration unit coupled to the fixing screw to generate vibration and to transmit the generated vibration to the holding unit through the fixing screw. 9. The apparatus according to claim 8,
An analysis unit for analyzing the pressure data and analyzing a user's climbing posture;
A learning unit for collecting the pressure data and comparing the pressure data with the climbing path and the pressure data of the expert, which are input in advance, and outputting comparison data; And
And a guide unit for receiving the comparison data of the learning unit and suggesting the climbing path capable of climbing with a minimum of force. 10. The apparatus according to claim 9,
Wherein the climbing path is displayed by transmitting a light emission signal to a smarthold to be gripped next time the user climbs. 11. The apparatus according to claim 10,
And transmits comparison data obtained by comparing and analyzing the climbing route of the user and the climbing route of the expert to the display. 9. The system of claim 8, wherein each of the smart holders comprises:
A communication unit connected to the transmission / reception unit to transmit and receive data and signals; And
And a display unit for emitting light upon receiving the light emission signal generated by the control unit.

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