TWM502837U - Balance evaluation device - Google Patents

Description

Equilibrium device

The present invention is a sensing device for detecting a human body, and more particularly a device for a human body to stand thereon for evaluating balance ability.

The well-balanced measuring device relies on a confidential instrument, and the testing personnel must undergo special training, which is not conducive to the clinical environment, and the structure is complicated and costly. The Republic of China Invention Patent No. I402493 "balance sensing for detecting the balance of human body weight and heart. The device is a balance sensing device for detecting the balance of weight and weight of a person, comprising: a base, a pillar, a standing platform and a plurality of strain gauges, the base and the standing platform being parallel to each other a pillar; the pillar is a cylinder or a tubular body having a bending deformation capability, and two ends of the pillar are fixedly connected to the base and the axis of the standing platform; and the strain gauges are equally spaced around the loop side of the pillar; The present invention can be coupled to a signal processing system for allowing a user to stand on a standing platform and adjust its center of gravity following the indication of the signal processing system, the strain gauge measuring the strain of the strut to cause the signal processing system to convert the user Static and dynamic balancing capabilities.

Although the above predecessor can also measure the balance of weight and weight of the person, the structure is still not simple enough, and it can only be tested in the blink of an eye. It does not have the function of transmitting data in the cloud to establish a database. Therefore, it is still inconvenient to use.

Therefore, in order to improve the above-mentioned deficiency, the present invention proposes a device for evaluating balance, comprising: a database storing at least one controlled image and at least one indicator image; a processing unit connecting the database; and a display screen, Connecting the processing unit; a balance test subsystem, connecting The processing unit includes a dynamic balance test module, a static balance test module, a balance sensing board and a switching module, wherein the dynamic balance test module is used to make the display screen different in Displaying the at least one controlled image and the at least one indicator image in a predetermined position, the static balance test module causes the display screen to display the at least one controlled image at a preset position, and the balance sensing board has a sensing unit The sensing unit is configured to sense an offset data of the balance sensing board, so that the processing unit changes a preset position of the at least one controlled image according to the offset data, and the switching module is configured to receive Switching the signal to execute the dynamic balance test module or executing the static balance test module; when the dynamic balance test module is executed, the dynamic balance test module records the at least one controlled image to the At least one indicates a movement trajectory of the image; when the static balance test module is executed, the static balance test module records an offset of the at least one controlled image relative to the preset position.

The balance sensing board further includes a driving unit that controls the displacement of the balanced sensing plate to generate different axial faces in the three-axis space.

Further, the transmission unit includes a transmission unit that transmits the movement trajectory or/and the offset data to a portable electronic device or/and a cloud information storage area.

The transmission unit is any one of a Bluetooth transmission unit, a Wi-Fi transmission unit, a 3G transmission unit, a 4G transmission unit, a Zigbee transmission unit, or a universal sequence bus transmission unit.

The balance sensing board further includes a driving unit that controls the balance sensing plate to generate displacement.

Further, the balance test subsystem includes a remote control handle and a signal receiving unit. The remote control handle generates a control signal wirelessly connected to the signal receiving unit, and the remote control handle is used to control another controlled image.

Further, the balance test subsystem includes a blink module and a closed eye module, the blink module and the closed eye module are connected to the static balance test module, and the blink module is for a user to blink When the time is measured, the closed eye module is provided for the user to be tested when the eye is closed.

The effect of this creation is:

1. This author evaluates the balanced device by balancing the sensor board with the animation game guide of the display screen, recording the user's static balance offset or dynamically controlling the body's offset trajectory to detect balance, and collecting and balancing performance. The data will be uploaded simultaneously to the cloud data creation database, and a large amount of data will be collected to assess the balance performance of different age groups.

2. The device for evaluating the balance of the creation also provides a closed-eye module to be tested. The user wears an eye mask or turns off the light to detect the balance in the inability to rely on the visual environment, and eliminates external factors to more accurately measure the balance ability.

3. The device for evaluating the balance of the creation can be combined with the remote control handle to improve the balance difficulty by simultaneously moving the hand, and to further understand the limit of the user's balance ability.

4. The device for evaluating the balance of the creation can be combined with the drive motor to make the balance sensor plate eccentrically vibrate. After detecting the user's balance, the balance of the test results is compared with the damage before the shaking, and the recovery progress is further improved. Multivariately test and record the user's balance change process under different variables, so that the measurement range is increased more discriminating.

(1) ‧ ‧ database

(11) ‧ ‧ controlled images

(111)‧‧‧First controlled image

(112)‧‧‧Second controlled imagery

(113)‧‧‧ Third controlled image

(114)‧‧‧ Fourth controlled image

(12)‧‧‧Instructed images

(121)‧‧‧First indicator image

(122)‧‧‧Second indicator image

(123)‧‧‧ Third indicator image

(124) ‧ ‧ fourth indicator image

(2) ‧‧‧Processing unit

(3) ‧‧‧display screen

(31)‧‧‧User login interface

(32)‧‧‧Test Mode Menu

(321) ‧‧‧Additional basic information

(322)‧‧‧Test mode

(323) ‧ ‧ basic information

(324) ‧‧‧Create storage path

(325)‧‧‧ Browse folders

(33)‧‧‧Test game interface

(331)‧‧‧ practice mode

(332)‧‧‧ Static test blink

(3321) ‧‧‧ Bright background

(3322) ‧‧‧ Static test blink test results

(333)‧‧‧ Static test closed eyes

(3331) ‧‧‧Dark background

(3332) ‧‧‧ Static test closed eye test results

(334) ‧ ‧ dynamic test up and down

(3341) ‧ ‧ dynamic test test results

(335) ‧‧‧ Dynamic test

(3351) ‧‧‧ Dynamic test test results

(336) ‧‧‧ begins

(4) ‧‧‧Balance Test Subsystem

(41)‧‧‧ Dynamic Balance Test Module

(411)‧‧‧ Third movement track

(412) ‧‧‧ fourth moving track

(42)‧‧‧Static balance test module

(421)‧‧‧First offset

(422) ‧ ‧ second offset

(43) ‧‧‧balanced sensing board

(431)‧‧‧Sensor unit

(432)‧‧‧ drive unit

(433)‧‧‧ Fixing frame

(434)‧‧‧Eccentric shaft

(435) ‧ ‧ bearings

(44)‧‧‧Switch Module

(45) ‧‧‧Remote handlebars

(46)‧‧‧Signal receiving unit

(47)‧‧‧Eye module

(48)‧‧‧ Closed eye module

(5) ‧‧‧Transmission unit

(51)‧‧‧Portable electronic devices

(52) ‧‧‧Cloud Information Storage Area

(6) ‧‧‧ storage unit

(A) ‧‧‧ users

[First figure] is a functional block diagram of the present embodiment.

[Second figure] is a functional block diagram of the present embodiment.

[Third image] is a schematic diagram of the function use of the present embodiment.

[Fourth figure] is a schematic diagram of a balanced sensing board of the present embodiment.

[Fifth figure] is a schematic flow chart of the present embodiment.

[Sixth] is a schematic diagram of a user login interface of the present creative embodiment.

[Seventh] is a schematic diagram of the test mode menu of the present embodiment.

[Eighth image] is a schematic diagram of the basic information of the creation of the present embodiment.

[Ninth Diagram] is a schematic diagram of establishing a storage path for the present embodiment.

[Tenth Graph] is a schematic diagram of the test game interface of the present creation embodiment.

[11th] is a schematic diagram of the static test of the present embodiment.

[Twelfth Figure] is a schematic diagram of the results of the static test of the present embodiment.

[Thirteenth Image] is a schematic diagram of a closed eye of a static test of the present embodiment.

[Fourteenth] is a schematic diagram of the results of the static test closed eyes of the present embodiment.

[Fifteenth] is a schematic diagram of the dynamic test of the present embodiment.

[16th] is a schematic diagram of the results of the dynamic test up and down test of the present embodiment.

[17th] is a left and right schematic diagram of the dynamic test of the present embodiment.

[Embodiment 18] is a schematic diagram of the results of the dynamic test left and right test of the present embodiment.

[19th] is a schematic diagram of a balanced sensing board combined with a motor according to the present embodiment.

Combining the above technical features, the main effects of the device for evaluating the balance of the present creation will be clearly shown in the following embodiments.

Please refer to the first to fourth figures. The preferred embodiment of the present invention is a device for evaluating balance, comprising:

A database (1) stores a controlled image (11) and an indicator image (12).

A processing unit (2) is connected to the database (1).

A display screen (3) is connected to the processing unit (2).

a balance test subsystem (4) connected to the processing unit (2), the balance test subsystem (4) comprising a dynamic balance test module (41), a static balance test module (42), and a balance sensing The board (43), a switching module (44), a remote control handle (45), a signal receiving unit (46), a blinking module (47) and a closed eye module (48), the dynamic balance test The module (41) is configured to cause the display screen (3) to display the controlled image (11) and the indication image (12) at different predetermined positions.

The balance sensing board (43) is for a user (A) to stand. The balance sensing board (43) has a sensing unit (431), and the sensing unit (431) includes at least four in the embodiment. The pressure sensors are respectively located at four opposite corners of the balance sensing plate (43), and the user is estimated by sensing the pressure changes of the four corners of the balance sensing plate (43). When the center of gravity is changed on the balance sensing plate (43), the sensing unit (431) senses that the pressure change corresponds to the offset of the center of gravity coordinate of the sensing plate (43), which is a conventional technique. Therefore, I will not go into details here.

The sensing unit (431) is configured to sense an offset data of the balance sensing board (43), so that the processing unit (2) changes the preset of the controlled image (11) according to the offset data. position. The balance sensing plate (43) further includes a driving unit (432) that controls the balance sensing plate (43) to generate displacement.

The switching module (44) is configured to receive a switching signal to switch to execute the dynamic balancing test module (41) or execute the static balance testing module (42). The remote control handle (45) is wirelessly connected to the signal receiving unit (46). The blink module (47) and the closed eye module (48) are connected to the static balance test module (42), and the blink module (47) and the closed eye module (48) further comprise a glasses unit, The eyeglass unit has at least one lens, and when the blink module (47) is operated, the lens is The transparent state; when the closed eye module (48) is operated, the eyeglass unit is connected to the shielded line of sight unit to make the lens opaque. This is a conventional technique, and can refer to the Republic of China new patent No. M447506 "electrochromic lens". The way of discoloration is not repeated. The closed eye condition can also be achieved by a blindfold or by temporarily closing the line of sight, such as turning off the light or closing the eye.

a transmission unit (5), the transmission unit (5) transmitting the movement trajectory or/and the offset data to a portable electronic device (51) or/and a cloud information storage area (52), The transmission unit (5) is a Bluetooth transmission unit, a Wi-Fi transmission unit, a 3G transmission unit, a 4G transmission unit, a Zigbee transmission unit or a universal sequence bus transmission unit.

A storage unit (6) is connected to the processing unit (2).

Please refer to the fifth to seventh diagrams. This is the operation flow of the creation. The display screen (3) displays a user login interface (31) for the user (A) to enter an account number and a password. The processing unit (2) determines whether the account number and the password match the data in the cloud information storage area (52), thereby confirming the user (A) identity. After login, the display screen (3) displays a test mode menu (32). The test mode menu (32) has a plurality of options, and the plurality of options include a new basic data (321) and a test mode (322). If the user (A) is the first test (ie, the new subject), the new basic data (321) is selected.

Please refer to the eighth and ninth diagrams. Select the new basic data (321) and a basic data (323) window appears. Enter a name, a birthday, and a height of the user (A). One weight, one foot long, one foot wide, tick one gender (male/female) and one used foot (left foot/right foot), which may be affected by the weight, the height, the length of the foot and the width of the foot. User (A) balance, so the above information needs to be collected as evaluation data; after completion, select a storage path (324), a browse folder (325) window appears, and select the location of the storage unit (6).

Please refer to the tenth figure, after completing the above filling steps, return to the test mode menu (32), select the test mode (322), display a test game interface (33), and the test game interface (33) includes a Practice mode (331), as well as a static test blink (332), a static test closed eye (333), a dynamic test up and down (334), a dynamic test left and right (335), select any of the above options test game, point Select Start (336) to enter the game screen.

It should be specially noted that if the practice mode (331) is checked, the storage unit (6) will not store the test result. The dynamic test upper and lower (334) and the dynamic test left and right (335) can select the difficulty level, and the higher the difficulty, the farther the controlled image (11) is from the indication image (12) (the difficulty is selected in the drawing) Omitted).

For the continuation, please refer to the eleventh and twelfth drawings, which is the static test blink of the present embodiment and the test result thereof. The static test blink (332) is connected to the blink module (47). The processing unit (2) causes the display screen (3) to display a first controlled image (111), a first indication image (121), and a bright color background (3321), the first controlled image ( 111) The offset of the sensing plate (43) is balanced, the first indicator image (121) is a preset position, and the static balance test module (42) records the first controlled image (111) relative to The first indication image (121) is first offset (421). After the test is completed, the processing unit (2) calculates a path length of the first controlled image (111) in the range of the first indication image (121) and a path length of the first offset (421). The display screen (3) displays a static test blink test result (3322).

Continuation with reference to the thirteenth and fourteenth drawings, which is a static test closed eye and a test result thereof according to the present embodiment, the static test closed eye (333) is connected to the closed eye module (48), The processing unit (2) causes the display screen (3) to display a second controlled image (112), a second indicator image (122) and a dark background (3331), the second controlled image (112) Corresponding to the offset of the sensing plate (43), the second indicator image (122) is a preset position, and the static balance test module (42) records the second controlled image (112) relative to the second Instructing a second offset (422) of the image (122), and calculating, by the processing unit (2), a time when the second controlled image (112) is located within the second indication image (122) and the The path of the second offset (422) is long, and a static test closed eye test result (3332) is displayed by the display screen (3).

For the continuation, please refer to the fifteenth and sixteenth drawings, which are shown in the dynamic test of the present embodiment and the test result thereof. The dynamic test upper and lower (334) is connected to the dynamic balance test module (41). The processing unit (2) causes the display screen (3) to display a third controlled image (113) and a third indicator image (123), and the third controlled image (113) corresponds to the balanced sensing plate. (43) The position of the third indicator image (123) is located on the upper and lower sides of the third controlled image (113), and the dynamic balance test module (41) records the third controlled image ( 113) moving to the third movement track (411) of the third indication image (123), and after the test is completed, calculating, by the processing unit (2), the third controlled image (113) to move to the third indication image (123) The number of successes and the path of the third movement track (411) are long, and a dynamic test up and down test result (3341) is displayed by the display screen (3).

It should be specially noted that when the user (A) wants to control the third controlled image (113) to the third indication image (123) on the upper and lower sides, the body must be placed before the balance sensing plate (43). / Rear direction tilt to control the third indicator image (123) corresponding to the up/down movement.

For the continuation, please refer to the seventeenth and eighteenth drawings, which are shown in the dynamic test of the present embodiment and the test results thereof. The dynamic test is connected to the dynamic balance test module (41). The processing unit (2) causes the display screen (3) to display a fourth controlled image (114) and a fourth indicator image (124), and the fourth controlled image (114) corresponds to the balanced sensing plate. (43) The displacement position of the fourth indicator image (124) is located on the left and right sides of the fourth controlled image (114), and the dynamic balance test module (41) records the fourth controlled image (114) shift To the fourth movement trajectory (412) of the fourth indication image (124), after the test is completed, the processing unit (2) calculates the success of the fourth controlled image (114) moving to the fourth indication image (124). The number of times and the path of the fourth movement track (412) are long, and a dynamic test left and right test result (3351) is displayed by the display screen (3). The user (A) has to tilt the body to the left/right direction of the balance sensing plate (43) to control the third controlled image (113) to move to the third indicator image corresponding to the body left/right (123) ) The location.

The remote control handle (45) can be further combined to generate a control signal to the signal receiving unit (46), and the display screen (3) displays another controlled image corresponding to the remote control handle (45) for the user ( A) When performing the static test blink (332), the dynamic test up and down (334) or the dynamic test left and right (335) game, the other controlled image (such as tennis and other hand movements) must be controlled by hand at the same time. , omitted in the figure), to increase the difficulty of the user (A) balance, thereby comparing the difference between the offset or movement trajectory of the balance sensing plate (43) and the original test (no hand movement).

Please refer to FIG. 19 for another embodiment of the present invention. The balance sensing board (43) further includes the driving unit (432), and the driving unit (432) is a motor body. The bottom of the motor body is fixedly connected to a fixing frame (433). The upper end shaft of the motor body is provided with an eccentric shaft (434), and the bottom of the balance sensing plate (43) is pivoted on the eccentric shaft by a bearing (435). 434), the eccentric shaft (434) is used to strengthen the vibration force of the rotation of the motor body, so that when the motor body is running, the eccentric vibration of the balance sensing plate (43) can be driven and driven, and the driving unit (432) controls The balance sensing plate (43) generates displacements of different axial planes in the three-axis space, and can refer to the vibration mode of the "Vietnam Blood Conditioning Health Machine" of the Republic of China New Patent No. M248442.

The user (A) first accepts the eccentric vibration of the balance sensing plate (43), and then performs the static test blink (332), the static test closed eye (333), the dynamic test up and down (334) or the dynamic test. Left and right (335) games for comparing the offset or movement trajectory of the balance sensing plate (43) with the original test (without eccentric vibration); the sensing result by the sensing unit (431) may also be The processing unit (2) calculates whether the amplitude of the balance sensing plate (43) is regular, so as to know that the user (A) changes the amplitude of the amplitude due to the change of the center of gravity at a fixed vibration frequency, thereby knowing the User (A) balance ability.

In view of the above description of the embodiments, the above-described embodiments are merely a preferred embodiment of the present invention, and the implementation of the present invention is not limited thereto. The scope, that is, the simple equivalent changes and modifications made in accordance with the scope of the patent application and the content of the creation of the creation, are within the scope of this creation.

(11) ‧ ‧ controlled images

(12)‧‧‧Instructed images

(3) ‧‧‧display screen

(43) ‧‧‧balanced sensing board

(A) ‧‧‧ users

Claims (7)

A device for evaluating balance comprises: a database storing at least one controlled image and at least one indicator image; a processing unit connected to the database; a display screen connected to the processing unit; and a balance test subsystem connected The processing unit includes a dynamic balance test module, a static balance test module, a balance sensing board and a switching module, wherein the dynamic balance test module is used to make the display screen different in Displaying the at least one controlled image and the at least one indicator image in a predetermined position, the static balance test module causes the display screen to display the at least one controlled image at a preset position, and the balance sensing board has a sensing unit The sensing unit is configured to sense an offset data of the balance sensing board, so that the processing unit changes a preset position of the at least one controlled image according to the offset data, and the switching module is configured to receive Switching the signal to execute the dynamic balance test module or executing the static balance test module; when performing the dynamic balance test module, the dynamic balance test The group records the movement of the at least one controlled image to the at least one indicator image; when the static balance test module is executed, the static balance test module records the at least one controlled image relative to the preset position Offset. The device for evaluating balance according to claim 1, wherein the balance sensing plate further comprises a driving unit that controls the balance sensing plate to generate displacement of different axial faces in the three-axis space. The apparatus for evaluating balance according to claim 1 further includes a transmission unit that transmits the movement trajectory or/and the offset data to a portable electronic device or/and a cloud Information storage area. The apparatus for evaluating balance according to claim 3, wherein the transmission unit is a Bluetooth transmission unit, a Wi-Fi transmission unit, a 3G transmission unit, a 4G transmission unit, a Zigbee transmission unit, or A universal sequence bus transmission unit. The apparatus for evaluating balance according to claim 4, wherein the balance test subsystem further comprises a remote control handle and a signal receiving unit, wherein the remote control handle generates a control signal to wirelessly connect the signal receiving unit, The remote control handle is used to manipulate another controlled image. The apparatus for assessing balance according to claim 4, wherein the balance test subsystem further comprises a blink module and a closed eye module, wherein the blink module and the closed eye module are connected to the static balance test The module, the closed eye module includes a shadow line of sight unit. The apparatus for assessing balance according to claim 6, wherein the blink module and the closed eye module further comprise a glasses unit, the glasses unit having at least one lens, when the blink module is operated, The lens is in a transparent state; when the closed eye module is operated, the eyeglass unit is connected to the shielding line of sight unit to make the lens opaque.