CN109511628B - Gloves with puff structure and mosquito killing method thereof - Google Patents
Gloves with puff structure and mosquito killing method thereof Download PDFInfo
- Publication number
- CN109511628B CN109511628B CN201811613620.7A CN201811613620A CN109511628B CN 109511628 B CN109511628 B CN 109511628B CN 201811613620 A CN201811613620 A CN 201811613620A CN 109511628 B CN109511628 B CN 109511628B
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- mosquito
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- generation module
- puff
- palm
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- A—HUMAN NECESSITIES
- A01—AGRICULTURE; FORESTRY; ANIMAL HUSBANDRY; HUNTING; TRAPPING; FISHING
- A01M—CATCHING, TRAPPING OR SCARING OF ANIMALS; APPARATUS FOR THE DESTRUCTION OF NOXIOUS ANIMALS OR NOXIOUS PLANTS
- A01M3/00—Manual implements, other than sprayers or powder distributors, for catching or killing insects, e.g. butterfly nets
-
- A—HUMAN NECESSITIES
- A41—WEARING APPAREL
- A41D—OUTERWEAR; PROTECTIVE GARMENTS; ACCESSORIES
- A41D19/00—Gloves
- A41D19/0024—Gloves with accessories
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- A—HUMAN NECESSITIES
- A41—WEARING APPAREL
- A41D—OUTERWEAR; PROTECTIVE GARMENTS; ACCESSORIES
- A41D19/00—Gloves
- A41D19/01—Gloves with undivided covering for all four fingers, i.e. mittens
Abstract
The application relates to a set up gloves of puffing structure, including gloves main part, gloves main part includes five finger parts and palm part, still puff structure, mosquito luring lamp between five finger parts including setting up, puff the structure and adopt the flexible material preparation, puff built-in flat cavity in the structure, set up nanometer vibration power generation material in the flat cavity, nanometer vibration power generation material is popped out the structure vibration according to shaking of finger and is generated electricity to supply the mosquito luring lamp to give out light, still include the controller, the controller detects rocking of finger, lights mosquito luring lamp. This application can rock the control mosquito trapping lamp according to the finger and lure the mosquito to set up the structure of puffing of taut state between the finger, enlarge the area of contact who beats the mosquito, the cooperation static produces the module and kills the mosquito, makes things convenient for people to find the mosquito fast and pat.
Description
Technical Field
The invention belongs to the technical field of articles for daily use, and particularly relates to a glove with a puff structure and a mosquito killing method thereof.
Background
In the prior art, mosquito killing devices are very numerous and are widely used in life, but no matter the devices made of mosquito killing agents, mosquito coils or mosquito-lured lamps have certain defects more or less, mosquitoes cannot be completely killed, if the mosquito coils are used, harmful chemicals can be generated, and harmful effects can be generated on children or allergic people; for mosquito killing products, when people use the electronic high-voltage mosquito and fly killing swatter to kill flies and mosquitoes flying in the air, the high-voltage discharge phenomenon generated by electric shock on the flies and the mosquitoes can emit sound and light which are harsh, the electricity is consumed, and the danger of electric shock also exists. Also, mosquito swatters are difficult to use in mosquito nets or confined areas.
In life, when mosquito killing is carried out, mosquitoes often escape from finger gaps, and sometimes the mosquitoes seen by eyes are difficult to hit, so that the mosquitoes are difficult to hit in a small space in life.
Disclosure of Invention
The invention aims to provide a device and a method for killing mosquitoes by attracting mosquitoes in a narrow range, which can be used for physically killing mosquitoes, and a fastening puff structure is arranged between fingers, so that the contact area for killing the mosquitoes is enlarged, people can conveniently find the mosquitoes for beating the mosquitoes quickly, and convenience is provided for people to kill the mosquitoes in a trip or the narrow range.
In order to solve the technical problems: the utility model provides a set up gloves of puffing structure, includes gloves main part, gloves main part includes five finger parts and palm part, still puff structure, mosquito trapping lamp including setting up between five finger parts, puff the structure and adopt flexible material preparation, puff built-in flat cavity in the structure, set up nanometer vibration power generation material in the flat cavity, nanometer vibration power generation material is blown out the structure vibration and is generated electricity according to shaking of finger to supply the mosquito trapping lamp to give out light, still include the controller, what the controller detected the finger rocks, lights the mosquito trapping lamp.
The glove with the puff structure is characterized in that an array-shaped static electricity generating module is arranged on the inner side of the puff structure, and generates static electricity on the puff structure; the five finger parts and the palm part are made of anti-static materials.
The glove with the puff structure is characterized in that a first induction electric energy generation module is arranged at the palm center of the palm component, and when a mosquito is patted by a palm, the first induction electric energy generation module generates induction electric energy when the palm centers of a left hand and a right hand are closed.
The glove with the puff structure further comprises a second induction electric energy generation module, the second induction electric energy generation module generates induction electric energy according to the forward and backward shaking of five fingers and supplies power to the mosquito attracting lamp, the induction electric energy generation modules are arranged at the connection position of the finger parts and the puff structure and are distributed on two sides of the puff structure, and the puff structure is respectively connected with every two adjacent finger parts; mosquito trapping lamps are arranged at the adjacent positions of every two of the five finger parts and are arranged at the connecting position of the finger parts and the puff structure and are close to the inner side of the palm center of the glove; .
The glove with the puff structure is characterized in that at least one of every two adjacent finger parts is provided with a winder of the puff structure, the winder is arranged in the finger structure and used for tightening the puff structure according to the opening degree of fingers, so that the puff structure is in a tensioning state, the puff structure is provided with a flexible triangular wavy structure near the finger tip and used for staggered coupling of left and right gloves when mosquitoes are beaten by two hands.
The gloves with puff structures are characterized in that 365-375 nanometer light waves are used as the mosquito trapping lamps.
The glove with the puff structure further comprises a finger shaking sensor, the finger shaking sensor is used for detecting shaking of fingers and transmitting detected signals to the controller, and the mosquito attracting lamp is turned on by the controller according to the received signals of shaking of the fingers.
The glove with the puff structure further comprises an induction electric energy detection unit, the induction electric energy detection unit detects whether the second induction electric energy generation module generates electric energy, if so, a pulse signal is sent to the controller, and the controller lights the mosquito trapping lamp according to the received pulse signal.
In the glove with the puff structure, the five finger parts are provided with first supporting pieces which are used for supporting and fixing the induction electric energy generation module, the finger shaking sensor and the induction electric energy detection unit; a second supporting piece is arranged in the palm component and used for supporting and fixing the sheet-shaped battery, the controller and the palm motion sensor; the first supporting piece is provided with a shielding layer, and the shielding layer is used for shielding the electromagnetic signal of the induction generating module from leaking.
A mosquito killing method, which uses the glove with a puff structure as any one of the above, comprises the following steps: shaking the fingers, and outputting a finger shaking signal to the controller; the controller outputs a control signal, lights the mosquito-luring lamp and turns on the array-shaped static electricity generation module; detecting the motion state of the palm, tightening the puff structure and turning off the mosquito trapping lamp when judging that the palm is in the mosquito flapping state.
The detection of the palm motion state uses the palm motion sensor to detect, and specifically comprises: detecting the moving direction and the moving speed of a palm by using a palm moving sensor, transmitting the moving direction and the moving speed to the controller, setting a first moving speed threshold and a second moving speed threshold by the controller, and keeping the mosquito luring lamp in a fully lighted state when the moving speed is lower than the first moving speed threshold; when the movement speed is between a first movement speed threshold and a second movement speed threshold, judging the movement direction, calculating the time of single movement of the palm in a single movement direction, calculating the displacement of the single movement of the palm according to the movement time, if the displacement is greater than a first displacement threshold, closing half of the mosquito luring lamps at intervals, tensioning the puff structure, and if the displacement is less than the first displacement threshold, closing all the mosquito luring lamps, and tensioning the puff structure; when the motion speed is higher than the second motion speed threshold value, all the mosquito luring lamps are turned off and the puff structure is pulled up.
The 365-375 nanometer optical wave which is liked by mosquitoes is used for inducing mosquitoes in partial areas to be close to the light source, so that people can quickly find out the mosquito net or the mosquitoes in limited areas to flap and kill the mosquitoes; preventing mosquitoes in a mosquito net or confined area from being undetected and biting a child or sleeping person; the electric energy can be generated according to various detection finger shaking states, the electric energy is provided for the mosquito-lured lamp, a control signal for lighting the mosquito-lured lamp is generated according to finger shaking, the motion direction and the motion speed of the palm are detected, the palm is judged to be in a mosquito beating state, the mosquito-lured lamp is controlled to be self-adaptive to be closed, and the electric energy is saved. And a tensioning puff structure is arranged between the fingers, so that the contact area for beating the mosquitoes is enlarged, and people can conveniently find the mosquitoes quickly for beating. The puff structure is driven to vibrate by shaking fingers, the piezoelectric material in the puff structure generates electric energy in the vibration process, the nano power generation is improved, the electric energy is fully utilized, and meanwhile, when a left hand and a right hand are close to flap mosquitoes, the electric energy required by the mosquito attracting lamp and the static electricity generating module can be generated.
Drawings
FIG. 1 is a schematic view of the overall structure of the glove with a puff structure according to the present invention.
FIG. 2 is a schematic view of the mosquito eradication method according to the present invention.
Detailed Description
The present application will now be described in further detail with reference to the drawings, it should be noted that the following detailed description is given for illustrative purposes only and is not to be construed as limiting the scope of the present application, as those skilled in the art will be able to make numerous insubstantial modifications and adaptations to the present application based on the above disclosure.
As shown in figure 1, the overall structure of the mosquito killing glove is schematically shown.
The application provides a set up gloves of puffing structure, including gloves main part, gloves main part includes five finger parts and palm part, still puff structure, mosquito luring lamp between five finger parts including setting up, puff the structure and adopt flexible material preparation, puff built-in flat cavity in the structure, set up nanometer vibration power generation material in the flat cavity, nanometer vibration power generation material is popped out the structure vibration according to shaking of finger and is generated electricity to supply the mosquito luring lamp to give out light, still include the controller, the controller detects rocking of finger, lights mosquito luring lamp.
The glove with the puff structure is characterized in that an array-shaped static electricity generating module is arranged on the inner side of the puff structure, and generates static electricity on the puff structure; the five finger parts and the palm part are made of anti-static materials.
The glove with the puff structure is characterized in that a first induction electric energy generation module is arranged at the palm center of the palm component, and when a mosquito is patted by a palm, the first induction electric energy generation module generates induction electric energy when the palm centers of a left hand and a right hand are closed.
The glove with the puff structure further comprises a second induction electric energy generation module, the second induction electric energy generation module generates induction electric energy according to the forward and backward shaking of five fingers and supplies power to the mosquito attracting lamp, the induction electric energy generation modules are arranged at the connection position of the finger parts and the puff structure and are distributed on two sides of the puff structure, and the puff structure is respectively connected with every two adjacent finger parts; mosquito trapping lamps are arranged at the adjacent positions of every two of the five finger parts and are arranged at the connecting position of the finger parts and the puff structure and are close to the inner side of the palm center of the glove; .
The glove with the puff structure is characterized in that at least one of every two adjacent finger parts is provided with a winder of the puff structure, the winder is arranged in the finger structure and used for tightening the puff structure according to the opening degree of fingers, so that the puff structure is in a tensioning state, the puff structure is provided with a flexible triangular wavy structure near the finger tip and used for staggered coupling of left and right gloves when mosquitoes are beaten by two hands.
The mosquito attracting lamp is arranged at the position close to the palm centers, so that mosquitoes are attracted to the positions between the palm centers, and the mosquito swatting is convenient and quick.
Through the second induction electric energy generation module that sets up both sides, can make full use of rocking of finger respond to the electricity generation. At least one row of induction coils are respectively arranged on two sides of the puff structure, and the two rows of induction coils generate electric energy together through mutual shaking of fingers. Preferably, the induction coils and the mosquito-lured lamps are arranged in a row at intervals close to the inner side of the puff structure, or the induction coils and the mosquito-lured lamps are respectively arranged in two rows to save space, and the arrangement of the induction coils at the outer side of the puff structure forms at least one row of structure more closely than that of the induction coils at the inner side of the puff structure.
Expansion kill mosquito area's gloves, at least one setting is popped up the winder of structure in per two adjacent finger parts, the winder sets up in the finger structure for tighten up according to the opening degree of finger pop up the structure, make pop up the structure and be in taut state, pop up the structure and be close to finger tip department and set up flexible triangle wavy structure, be used for when the both hands carry out the mosquito and pat, the gloves of left and right hand carry out the cross coupling.
The glove capable of expanding the mosquito killing area is characterized in that a palm motion sensor is arranged in the palm component, the palm motion sensor detects the motion direction and the motion speed of a palm and transmits the motion direction and the motion speed to the controller, the controller sets a first motion speed threshold and a second motion speed threshold, and when the motion speed is lower than the first motion speed threshold, the mosquito trapping lamp is kept in a fully-lighted state; when the movement speed is between a first movement speed threshold and a second movement speed threshold, judging the movement direction, calculating the time of single movement of the palm in a single movement direction, calculating the displacement of the single movement of the palm according to the movement time, if the displacement is greater than a first displacement threshold, closing half of the mosquito luring lamps at intervals, tensioning the puff structure, and if the displacement is less than the first displacement threshold, closing all the mosquito luring lamps, and tensioning the puff structure; when the motion speed is higher than a second motion speed threshold value, all the mosquito luring lamps are turned off, and the puff structure is pulled up; the second motion speed threshold is greater than the first motion speed threshold;
the static electricity generation module detects a finger shaking signal, then receives a control command of the control signal to open, judges whether the first induction electric energy generation module of the palm generates electric energy when the finger is not shaken, if so, keeps the static electricity generation module in an open state, and if not, closes the static electricity generation module.
The glove for expanding the mosquito killing area uses 365-375 nanometer light waves.
The gloves of extension kill mosquito area, still include that the finger rocks the sensor, the finger rocks the sensor and is used for detecting rocking of finger to with the signal transmission who detects reach the controller, the controller is according to the signal that received finger rocked, light the mosquito luring lamp.
The gloves of extension kill mosquito area, still include response electric energy detecting element, response electric energy detecting element detects whether response electric energy generation module produces the electric energy, if produce the electric energy, then send a pulse signal and give the controller, the controller is according to receiving pulse signal lights the mosquito luring lamp.
In the glove for expanding the mosquito killing area, the five finger parts are provided with first supporting pieces, and the first supporting pieces are used for supporting and fixing the induction electric energy generation module, the finger shaking sensor and the induction electric energy detection unit; and a second supporting piece is arranged in the palm component and used for supporting and fixing the sheet-shaped battery, the controller and the palm motion sensor.
The gloves of extension kill mosquito area, first support piece is provided with the shielding layer, the shielding layer is used for shielding the electromagnetic signal of response generation module leaks.
The glove is made of polyester fabric, and the base material is composed of polyester and conductive fibers. The first supporting piece and the second supporting piece are fixed in the glove through at least two layers of polyester cloth materials.
As shown in FIG. 2, the mosquito killing method of the present invention is schematically shown. A mosquito killing method, which uses the glove for expanding mosquito killing area, comprises the following steps: shaking the fingers, and outputting a finger shaking signal to the controller; the controller outputs a control signal, lights the mosquito-luring lamp and turns on the array-shaped static electricity generation module; detecting the motion state of the palm, tightening the puff structure and turning off the mosquito trapping lamp when the palm is in a mosquito flapping state; and detecting whether the first induction electric energy generation module generates electric energy, if so, keeping the static electricity generation module in an open state, and if not, closing the static electricity generation module.
The mosquito-lured lamp uses SMD LED lamp, sets up between the finger joint of finger part, can set up two rows of mosquito-lured lamps respectively in the finger joint both sides of every finger, the induction energy generation module with the mosquito-lured lamp interval sets up, uses flat coil, through rocking each other between the finger, produces the effect of two magnetic field of cutting's power, through the effect in above-mentioned magnetic field of cutting, produces induction magnetic field force to this judges that the finger is moving, and produces the electric energy of supplying the mosquito-lured lamp. The mosquito is attracted by the mosquito attracting lamp, so that the mosquito net or the mosquitoes in a limited small area can be found quickly, and a user can conveniently flap the mosquitoes.
The detection of the palm motion state uses the palm motion sensor to detect, and specifically comprises: detecting the moving direction and the moving speed of a palm by using a palm moving sensor, transmitting the moving direction and the moving speed to the controller, setting a first moving speed threshold and a second moving speed threshold by the controller, and keeping the mosquito luring lamp in a fully lighted state when the moving speed is lower than the first moving speed threshold; when the movement speed is between a first movement speed threshold and a second movement speed threshold, judging the movement direction, calculating the time of single movement of the palm in a single movement direction, calculating the displacement of the single movement of the palm according to the movement time, if the displacement is greater than a first displacement threshold, closing half of the mosquito luring lamps at intervals, tensioning the puff structure, and if the displacement is less than the first displacement threshold, closing all the mosquito luring lamps, and tensioning the puff structure; when the motion speed is higher than the second motion speed threshold value, all the mosquito luring lamps are turned off and the puff structure is pulled up.
Judge through direction of motion and speed that the palm is in clapping the mosquito state, still can lure the mosquito stage, can carry out accurate area according to speed and direction and time the active state of the palm of gloves when carrying out the palm state of clapping, in time close the mosquito-luring lamp, save the electric energy.
The mosquito-lured glove comprises at least four invention points, namely, a mosquito-lured lamp is arranged in the glove, so that mosquitoes can be lured to flap in a mosquito net or a narrow limited area; the second judges that the palm motion direction judges that the palm patts the mosquito stage, in time closes the mosquito-lured lamp, saves the electric energy, and the third rocks each other through the finger, forms the magnetic field response and responds to the electricity generation to control the mosquito-lured lamp and light according to response electricity generation or finger shake signal, can also rock through the finger and drive the electricity generation of piezoelectric material. And fourthly, the tensioning structure is arranged between the fingers, so that the contact area for beating the mosquitoes is enlarged, people can conveniently find the mosquitoes for beating quickly, and when the mosquitoes are beaten, the mosquitoes are prevented from escaping through the tensioning structure and the outward triangular wavy shape of the tensioning structure.
The 365-375 nanometer optical waves favored by mosquitoes are used, so that the mosquitoes are conveniently and quickly induced, and the mosquitoes in partial areas are attracted to be close to the light source, so that people can quickly find the mosquito net or the mosquitoes in limited areas to flap and kill the mosquitoes; preventing mosquitoes in a mosquito net or confined area from being undetected and biting a child or sleeping person; the electric energy can be generated according to various detection finger shaking states, the electric energy is provided for the mosquito-lured lamp, a control signal for lighting the mosquito-lured lamp is generated according to finger shaking, the motion direction and the motion speed of the palm are detected, the palm is judged to be in a mosquito beating state, the mosquito-lured lamp is controlled to be self-adaptive to be closed, and the electric energy is saved. And a tensioning puff structure is arranged between the fingers, so that the contact area for beating the mosquitoes is enlarged, and people can conveniently find the mosquitoes quickly for beating. The puff structure is driven to vibrate by shaking fingers, the piezoelectric material in the puff structure generates electric energy in the vibration process, the nano power generation is improved, the electric energy is fully utilized, and meanwhile, when a left hand and a right hand are close to flap mosquitoes, the electric energy required by the mosquito attracting lamp and the static electricity generating module can be generated.
Claims (9)
1. A mosquito killing method is characterized in that a glove with a puff structure is used, the glove comprises a glove main body portion, the glove main body portion comprises five finger parts and a palm part, the glove further comprises the puff structure and a mosquito trap lamp, the puff structure and the mosquito trap lamp are arranged among the five finger parts, the puff structure is made of flexible materials, a flat cavity is arranged in the puff structure, a nano vibration power generation material is arranged in the flat cavity, the nano vibration power generation material drives the puff structure to vibrate according to the shaking of fingers to generate power so as to enable the mosquito trap lamp to emit light, an array-shaped static electricity generation module is arranged on the inner side of the puff structure, and the static electricity generation module generates static electricity on the puff structure; a first induction electric energy generation module is arranged at the palm center of the palm component; still include the controller, the controller detects rocking of finger, lights mosquito-lured lamp specifically includes following step: shaking the fingers, and outputting a finger shaking signal to the controller; the controller outputs a control signal, lights the mosquito-luring lamp and turns on the array-shaped static electricity generation module; detecting the motion state of the palm, tightening the puff structure and turning off the mosquito trapping lamp when the palm is in a mosquito flapping state; and detecting whether the first induction electric energy generation module generates electric energy, if so, keeping the static electricity generation module in an open state, and if not, closing the static electricity generation module.
2. A method of killing mosquitoes as claimed in claim 1 wherein the five finger members and the palm member are of antistatic material.
3. The method of killing mosquitoes according to claim 2, wherein the first induction power generating module generates induction power when palms of the left and right hands are closed when the palms of the left and right hands flap mosquitoes.
4. The mosquito eradication method according to claim 1, wherein the glove further comprises a second inductive power generation module, the second inductive power generation module generates inductive power according to the forward and backward shaking of five fingers to supply power to the mosquito trap lamp, the second inductive power generation module is disposed at a connection position of the finger members and the pop structure and is distributed at two sides of the pop structure, and the pop structure is respectively connected with two adjacent finger members; the five finger parts are adjacent to each other in pairs and are provided with mosquito luring lamps, and the mosquito luring lamps are arranged at the connecting part of the finger parts and the puff structure and are close to the inner side of the palm center of the glove.
5. The method as claimed in claim 4, wherein at least one of the two adjacent finger members is provided with a windup in a pop configuration for tightening the pop configuration according to the opening degree of the fingers, and the pop configuration is in a tensioned state, and the pop configuration is provided with a flexible triangular wave-shaped structure near the tip of the fingers for cross-coupling the gloves of the left and right hands when the two hands are used for mosquito swatting.
6. The mosquito eradication method according to claim 3, wherein the mosquito trapping lamp uses 365-375 nm light waves.
7. The mosquito eradication method according to claim 4, wherein the glove further comprises a finger shake sensor for detecting a shake of the finger and transmitting a detected signal to the controller, and the controller lights the mosquito trap lamp according to the received signal of the finger shake.
8. The mosquito eradication method according to claim 7, wherein the glove further comprises an inductive power detection unit which detects whether the second inductive power generation module generates power, and if so, sends a pulse signal to the controller, and the controller lights the mosquito trap lamp according to the received pulse signal.
9. The mosquito eradication method according to claim 8, wherein the five finger parts are provided with a first support member for supporting and fixing the second inductive power generation module, the finger shake sensor and the inductive power detection unit; a second support is arranged in the palm component and used for supporting the controller; the first supporting piece is provided with a shielding layer, and the shielding layer is used for preventing the electromagnetic signal of the second induction electric energy generation module from leaking.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201811613620.7A CN109511628B (en) | 2018-12-27 | 2018-12-27 | Gloves with puff structure and mosquito killing method thereof |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201811613620.7A CN109511628B (en) | 2018-12-27 | 2018-12-27 | Gloves with puff structure and mosquito killing method thereof |
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| Publication Number | Publication Date |
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| CN109511628A CN109511628A (en) | 2019-03-26 |
| CN109511628B true CN109511628B (en) | 2021-10-15 |
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| Application Number | Title | Priority Date | Filing Date |
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| CN201811613620.7A Active CN109511628B (en) | 2018-12-27 | 2018-12-27 | Gloves with puff structure and mosquito killing method thereof |
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Citations (7)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101136551A (en) * | 2006-04-21 | 2008-03-05 | 上海中策工贸有限公司 | Power generation system |
| CN202286440U (en) * | 2011-11-01 | 2012-07-04 | 李雨泽 | Simple glove for capturing insects |
| CN203424357U (en) * | 2013-06-27 | 2014-02-12 | 米依尔·巴依哈孜 | Hand pressing heating glove |
| CN204031200U (en) * | 2013-09-23 | 2014-12-17 | 苏州工业职业技术学院 | Based on the network control system of wireless sensing |
| CN204670447U (en) * | 2015-04-22 | 2015-09-30 | 纳米新能源（唐山）有限责任公司 | Based on the sterilizing gloves of triboelectricity |
| KR20160002732U (en) * | 2016-07-18 | 2016-08-05 | 이상국 | Flycatcher gloves |
| CN106648072A (en) * | 2016-11-21 | 2017-05-10 | 深圳趣感科技有限公司 | Motion recognition and control palm ring |
-
2018
- 2018-12-27 CN CN201811613620.7A patent/CN109511628B/en active Active
Patent Citations (7)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101136551A (en) * | 2006-04-21 | 2008-03-05 | 上海中策工贸有限公司 | Power generation system |
| CN202286440U (en) * | 2011-11-01 | 2012-07-04 | 李雨泽 | Simple glove for capturing insects |
| CN203424357U (en) * | 2013-06-27 | 2014-02-12 | 米依尔·巴依哈孜 | Hand pressing heating glove |
| CN204031200U (en) * | 2013-09-23 | 2014-12-17 | 苏州工业职业技术学院 | Based on the network control system of wireless sensing |
| CN204670447U (en) * | 2015-04-22 | 2015-09-30 | 纳米新能源（唐山）有限责任公司 | Based on the sterilizing gloves of triboelectricity |
| KR20160002732U (en) * | 2016-07-18 | 2016-08-05 | 이상국 | Flycatcher gloves |
| CN106648072A (en) * | 2016-11-21 | 2017-05-10 | 深圳趣感科技有限公司 | Motion recognition and control palm ring |
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|---|---|
| CN109511628A (en) | 2019-03-26 |
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Effective date of registration: 20210926 Address after: 325600 Qing Jiang Zhen Jiang Yan Cun, Leqing City, Wenzhou City, Zhejiang Province Applicant after: Ding Saie Address before: 256602 No. 521, Huanghe 4th Road, Bincheng District, Binzhou City, Shandong Province Applicant before: Li Fang |
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