A graphene heating camo tactical glove

Abstract

The utility model provides a kind of graphene heating camouflage tactical gloves, including glove body;Glove body includes detachable inner layer cover body and outer layer cover body, and detachable graphene flexible electrothermal film is laid between inner layer cover body and outer layer cover body, and the surface of graphene flexible electrothermal film is attached with flexible film temperature sensor;The side of palm portion or back of hand of outer layer cover body close to wrist is provided with an opening, a fixed frame is fixed in the opening, a control box is detachably connected in the fixed frame, microprocessor, battery and drive module are equipped in control box, and battery is electrically connected with microprocessor, drive module, flexible film temperature sensor respectively.The utility model solves the problem that traditional heating gloves cannot be completely cleaned and are easily damaged, improves cleanliness while reducing resource waste, and prolongs the overall service life of the gloves;It can accurately control the temperature of the gloves, heat more evenly, and ensure the hand temperature of combat personnel stable in low temperature environment, maintain hand flexibility.

Description

Technical Field

[0001] This utility model relates to the field of tactical glove technology, specifically to a graphene-heated camouflage tactical glove. Background Technology

[0002] Tactical gloves are protective gear for combat personnel's hands, primarily designed to reduce or prevent injuries caused by friction from hard objects, punctures, and short-term burns from flames. During training or missions, tactical gloves provide excellent protection for the hands of armed police officers and soldiers.

[0003] Currently, the functionality of tactical gloves used by the Armed Police Force is relatively limited. Especially when performing tactical missions, outdoor operations, or daily activities in low-temperature environments, combat personnel's hands are prone to decreased dexterity and discomfort due to cold, which can even affect operational safety. Therefore, gloves with heating and insulation functions have become a necessity. However, current gloves with heating functions often suffer from uneven heating and are inconvenient to clean. As tactical gloves are frequently used outdoors, they require frequent cleaning. However, existing heated gloves, due to the internal heating components, often cannot be washed or can only be partially wiped clean, which is not only inconvenient but also results in low cleanliness. They need to be replaced after only a few uses, leading to a waste of resources.

[0004] In summary, a graphene-heated camouflage tactical glove needs to be designed to overcome the aforementioned problems. Utility Model Content

[0005] The purpose of this invention is to provide a graphene-heated camouflage tactical glove that overcomes the above-mentioned problems.

[0006] To achieve the above objectives, the technical solution adopted by this utility model is: a graphene-heated camouflage tactical glove, comprising: The glove itself; The glove body includes a detachable inner sleeve and an outer sleeve, and a graphene flexible electrothermal film is detachably laid between the inner sleeve and the outer sleeve. A flexible thin film temperature sensor is attached to the surface of the graphene flexible electrothermal film. An opening is provided on the palm or back of the hand near the wrist of the outer sleeve. A fixing frame is fixedly installed inside the opening, and a control box is detachably connected to the fixing frame. The control box contains a microprocessor, a battery, and a drive module. The battery is electrically connected to the microprocessor, the drive module, and a flexible thin-film temperature sensor. The flexible thin-film temperature sensor is electrically connected to the signal acquisition terminal of the microprocessor to collect the real-time temperature signal of the graphene flexible electrothermal film and feed it back to the microprocessor. The control output terminal of the microprocessor is electrically connected to the drive module, and the drive module is electrically connected to the graphene flexible electrothermal film. The microprocessor adjusts the power supply of the graphene flexible electrothermal film through the drive module based on the feedback signal from the temperature sensor.

[0007] The purpose of this utility model and the technical problems to be solved can be further achieved by the following technical measures.

[0008] Furthermore, the inner and outer sleeves are respectively provided with zippers on opposite sides of the wrist, and the inner and outer sleeves are also provided with Velcro, which can be detachably connected by the zipper and Velcro. The Velcro is provided in the non-covered area of ​​the graphene flexible electrothermal film.

[0009] Furthermore, the graphene flexible electrothermal film is covered with a flexible cloth sleeve on its outer side, and the graphene flexible electrothermal film is adhered to the inner wall of the flexible cloth sleeve. The outer side of the flexible fabric cover is attached to the outer wall of the inner cover using Velcro.

[0010] Furthermore, the graphene flexible electrothermal film includes an integrally formed palm portion and a finger portion. The finger portion is provided with five independent finger heating segments corresponding to the five fingers. Each finger heating segment is connected in parallel with the palm portion. Each finger heating segment of the palm portion and the finger portion is electrically connected to the microprocessor through the driving module.

[0011] Furthermore, the control box has at least one spherical spring buckle on its outer perimeter, and the inner sidewall of the fixing frame has multiple hemispherical slots that match the spherical spring buckle.

[0012] Furthermore, a protective plate is provided on the upper outer side of the fixed frame. One side of the protective plate is hinged to the fixed frame, and the other side of the two are connected by a buckle.

[0013] Furthermore, the outer sleeve has a ventilation slit along its edge near the thumb or little finger, and a zipper for opening and closing is sewn into the ventilation slit.

[0014] Furthermore, the outer sleeve has an elastic band at the wrist on its outer side wall, the inner side wall of the elastic band has a Velcro velvet surface, and the wrist of the outer sleeve has a Velcro hook surface that matches the Velcro velvet surface.

[0015] Furthermore, the outer sleeve has wear-resistant rubber anti-slip protrusions on the fingertips of all fingers except the index finger, and a touch part is provided on the fingertips of the index finger of the outer sleeve.

[0016] Furthermore, the outer sleeve has a wear-resistant pad on the back of the hand near the base of the fingers.

[0017] Compared with the prior art, the beneficial effects of this utility model are: 1. This utility model discloses a graphene-heated camouflage tactical glove, which is made by disassembling the glove body into inner and outer sleeves, which are detachably connected by zippers and Velcro, and a graphene flexible electric heating film is placed between the two sleeves, which can also be detached and removed from between the two sleeves. The control box is detachably connected to the fixing frame at the opening of the outer sleeve. During cleaning, the graphene flexible electric heating film, control box and other electronic components can be completely disassembled, and only the inner and outer sleeves are cleaned. This solves the problem of traditional heated gloves being unable to be thoroughly cleaned and easily damaged due to the built-in heating components, improves cleanliness, reduces resource waste, and extends the overall service life of the glove.

[0018] 2. This utility model discloses a graphene-heated camouflage tactical glove, in which a flexible graphene electrothermal film is integrally formed and five independent finger heating segments are provided on the finger section. Each heating segment is connected in parallel with the palm, which can achieve independent and uniform heating of the palm and five fingers. With the addition of a flexible thin film temperature sensor to collect temperature signals in real time, the microprocessor adjusts the power supply of the electrothermal film through the drive module according to the feedback signal, which can accurately control the glove temperature, avoid local overheating or insufficient heating, and ensure stable hand temperature of combat personnel in low-temperature environments, maintaining hand flexibility. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of the graphene heated camouflage tactical glove provided by this utility model in the back of the hand direction; Figure 2 This is a schematic diagram of the cross-section of one side of the outer layer of the graphene heated camouflage tactical glove provided by this utility model; Figure 3 This is a schematic diagram of the overall structure of the graphene heated camouflage tactical glove provided by this utility model in the palm direction; Figure 4 This is a cross-sectional structural diagram of the connection between the control box and the fixing frame in the graphene heated camouflage tactical glove provided by this utility model; Explanation of reference numerals in the attached figures: 1. Glove body; 11. Inner layer; 12. Outer layer; 121. Opening; 122. Fixing frame; 1221. Hemispherical slot; 1222. Protective plate; 123. Ventilation seam; 124. Elastic band; 1241. Velcro fleece surface; 125. Velcro hook surface; 126. Wear-resistant rubber anti-slip protrusions; 127. Touch area; 128. Wear-resistant pad; 13. Zipper; 2. Graphene flexible electrothermal film; 21. Palm area; 22. Finger area; 3. Flexible thin-film temperature sensor; 4. Control box; 41. Microprocessor; 42. Battery; 43. Drive module; 44. Spherical spring clip; 45. Switch button. Detailed Implementation

[0020] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0021] Please see Figures 1 to 4 A graphene-heated camouflage tactical glove, comprising: The glove body 1 is a fingerless type; The glove body 1 includes a detachable inner sleeve 11 and an outer sleeve 12. A graphene flexible electrothermal film 2 is detachably laid between the inner sleeve 11 and the outer sleeve 12. A flexible thin-film temperature sensor 3 is attached to the surface of the graphene flexible electrothermal film 2. Specifically, the graphene flexible electrothermal film 2 only needs to be laid on one side of the back of the hand or the palm. Preferably, the graphene flexible electrothermal film 2 is laid in the interlayer between the inner and outer sleeves on the back of the hand. Figure 2 As shown in the diagram; the outer sleeve 12 can be in camouflage (sand / olive green); the fingertips are provided with heat insulation material to prevent the gun from overheating in summer or the gun barrel from overheating during continuous firing, which could cause burns to the fingers; An opening 121 is provided on the palm or back of the hand near the wrist of the outer sleeve 12. A fixing frame 122 is fixedly installed inside the opening 121. A control box 4 is detachably connected inside the fixing frame 122. The control box 4 contains a microprocessor 41, a battery 42, and a drive module 43. The battery 42 is electrically connected to the microprocessor 41, the drive module 43, and the flexible thin film temperature sensor 3. The flexible thin film temperature sensor 3 is electrically connected to the signal acquisition terminal of the microprocessor 41 for collecting data on the flexible graphene temperature sensor. The real-time temperature signal of the heating film 2 is fed back to the microprocessor 41. The control output terminal of the microprocessor 41 is electrically connected to the drive module 43. The drive module 43 is electrically connected to the graphene flexible heating film 2. The microprocessor 41 adjusts the power supply of the graphene flexible heating film 2 through the drive module 43 according to the feedback signal of the temperature sensor 3, so as to avoid the heating film from being damaged by overheating, resulting in short circuit leakage, and at the same time prevent electrical faults caused by local overheating. The control box 4 is also equipped with a switch button 45 for controlling whether heating is performed.

[0022] Preferably, the inner sleeve 11 and the outer sleeve 12 are respectively provided with zippers 13 on opposite sides of the wrist. The zippers 13 are located on the inner side of the wrist edge to avoid direct contact with the skin and causing skin pinching or discomfort. In addition, there is a Velcro between the inner sleeve 11 and the outer sleeve 12. The two are detachably connected by the zippers 13 and the Velcro. The Velcro is located in the non-covered area of ​​the graphene flexible electric heating film 2. Preferably, the graphene flexible electric heating film 2 is located on the back of the hand. Therefore, the Velcro used to connect the inner and outer sleeves is located on the palm and the sides of the fingers. It can be divided into several intervals to avoid large areas causing grip discomfort.

[0023] Preferably, the graphene flexible electric heating film 2 is covered with a flexible cloth sleeve on its outer side. The graphene flexible electric heating film 2 is adhered to the inner wall of the flexible cloth sleeve. The graphene flexible electric heating film 2 has an insulating layer on its surface. The flexible cloth sleeve further protects the electric heating film from damage caused by external forces and squeezing, thus preventing the electric heating film from breaking and leaking electricity. It also improves wearing comfort and facilitates the installation of Velcro for connection with the inner sleeve 11. At the same time, the inner and outer sleeves form a double-layer protective structure, further isolating the electrical components from the skin of the hand, avoiding direct contact, and ensuring wearing safety.

[0024] The outer side of the flexible fabric cover is attached to the outer wall of the inner cover 11 by Velcro.

[0025] Preferably, the graphene flexible electrothermal film 2 includes an integrally formed palm portion 21 and a finger portion 22. The finger portion 22 has five independent finger heating segments corresponding to the five fingers. Each finger heating segment is connected in parallel with the palm portion 21. The finger heating segments of both the palm portion 21 and the finger portion 22 are electrically connected to the microprocessor 41 through the driving module 43. The palm portion 21 and the finger portion 22 are integrally formed, and the finger portion 22 has five independent finger heating segments, each of which is connected in parallel with the palm portion, enabling independent and uniform heating of the palm and the five fingers (not shown in the figure). With the flexible thin film temperature sensor 3 collecting temperature signals in real time, the microprocessor 41 adjusts the power supply of the electrothermal film through the driving module 43 based on the feedback signal, which can accurately control the glove temperature, avoid local overheating or insufficient heating, ensure stable hand temperature for combat personnel in low-temperature environments, and maintain hand dexterity. Furthermore, the integrally formed graphene flexible electrothermal film 2 and the control assembly are easy to disassemble and remove.

[0026] Preferably, the control box 4 has at least one spherical spring clip 44 on its outer perimeter, and the inner wall of the fixing frame 122 has multiple hemispherical slots 1221 that match the spherical spring clips 44. When removing the control box 4, press it towards the inside of the glove to disengage the spherical spring clips 44 from the hemispherical slots 1221, and then the control box 4 can be removed from the fixing frame. In this device, by placing the microprocessor 41, battery 42, drive module 43, and other electrical cores inside the control box 4 and connecting the control box 4 to the fixing frame 122 with clips, it can prevent the control box 4 from being bumped or loosened during tactical operations, thus avoiding exposed wiring, and also prevent water and dust from entering the control box 4 and causing short circuits or leakage.

[0027] Preferably, a protective plate 1222 is also provided on the upper outer side of the fixed frame 122. One side of the protective plate 1222 is hinged to the fixed frame 122, and the other side of the two are connected by a snap fastener. The protective plate 1222 can further protect the control box 4, preventing the control box 4 from becoming loose or damaged by impact during tactical operations, and ensuring the stable operation of electronic components. Specifically, the protective plate 1222 is a hard rubber plate, one end of which is integrally connected to one side of the fixed frame 122 by soft rubber. This not only makes it waterproof but also facilitates the flipping and opening of the protective plate 1222. The other side is connected by a snap fastener, and the edges where the two contact are provided with rubber pads, which can play a good waterproof role and prevent rainwater from entering the fixed frame 122 and causing leakage.

[0028] Preferably, the outer sleeve 12 has a ventilation seam 123 on the edge near the thumb or little finger, and a zipper for opening and closing is sewn into the ventilation seam 123. Alternatively, an opening can be made on the inner sleeve 11 at the position corresponding to the ventilation seam 123 to increase the ventilation effect; the ventilation seam 123 and the zipper can be opened and closed as needed, taking into account both warmth and breathability, and adapting to the usage needs in different environments; a lip strip (anti-pinch strip) is provided under the zipper to prevent pinching injury to the user's skin.

[0029] Preferably, the outer sleeve 12 has an elastic band 124 on its outer side wall at the wrist, the inner side wall of the elastic band 124 has a Velcro velvet surface 1241, and the wrist portion of the outer sleeve 12 has a Velcro hook surface 125 that matches the Velcro velvet surface 1241. The elastic band 124 adapts to different wrist sizes, improving the fit.

[0030] Preferably, the outer sleeve 12 has wear-resistant rubber anti-slip protrusions 126 on the fingertips of all fingers except the index finger, and a touch part 127 is provided on the fingertips of the index finger of the outer sleeve 12. This satisfies the needs of gripping and anti-slip operation in tactical scenarios, and also protects easily worn parts.

[0031] Preferably, the outer sleeve 12 has a wear-resistant pad 128 on the outer side of the back of the hand near the base of the fingers. This protects the easily worn parts of the palm and increases its service life.

[0032] The present invention has been further described above with reference to the embodiments, but the present invention is not limited to the above embodiments. Within the scope of knowledge possessed by those skilled in the art, various changes can be made without departing from the spirit of the present invention.

Claims

1. A graphene-heated camouflage tactical glove, comprising a glove body (1), characterized in that: The glove body (1) includes a detachable inner sleeve (11) and an outer sleeve (12). A graphene flexible electrothermal film (2) is detachably laid between the inner sleeve (11) and the outer sleeve (12). A flexible thin film temperature sensor (3) is attached to the surface of the graphene flexible electrothermal film (2). An opening (121) is provided on the palm or back of the hand near the wrist of the outer sleeve (12). A fixing frame (122) is fixedly installed inside the opening (121). A control box (4) is detachably connected inside the fixing frame (122). The control box (4) contains a microprocessor (41), a battery (42), and a drive module (43). The battery (42) is electrically connected to the microprocessor (41), the drive module (43), and the flexible thin film temperature sensor (3). The temperature sensor (3) is electrically connected to the signal acquisition terminal of the microprocessor (41) to acquire the real-time temperature signal of the graphene flexible electric heating film (2) and feed it back to the microprocessor (41). The control output terminal of the microprocessor (41) is electrically connected to the drive module (43). The drive module (43) is electrically connected to the graphene flexible electric heating film (2). The microprocessor (41) adjusts the power supply of the graphene flexible electric heating film (2) through the drive module (43) according to the feedback signal of the temperature sensor (3).

2. The graphene-heated camouflage tactical glove according to claim 1, characterized in that, The inner sleeve (11) and the outer sleeve (12) are respectively provided with zippers (13) on opposite sides of the wrist, and the inner sleeve (11) and the outer sleeve (12) are also provided with Velcro. The two are detachably connected by zippers (13) and Velcro. The Velcro is provided in the non-covered area of ​​the graphene flexible electrothermal film (2).

3. The graphene-heated camouflage tactical glove according to claim 2, characterized in that: The graphene flexible electrothermal film (2) is covered with a flexible cloth sleeve on the outside, and the graphene flexible electrothermal film (2) is adhered to the inner wall of the flexible cloth sleeve. The outer side of the flexible fabric cover is attached to the outer wall of the inner cover (11) by Velcro.

4. The graphene-heated camouflage tactical glove according to claim 3, characterized in that, The graphene flexible electrothermal film (2) includes an integrally formed palm part (21) and a finger part (22). The finger part (22) is provided with five independent finger heating segments corresponding to the five fingers. Each finger heating segment is connected in parallel with the palm part (21). Each finger heating segment of the palm part (21) and the finger part (22) is electrically connected to the microprocessor (41) through the driving module (43).

5. A graphene-heated camouflage tactical glove according to claim 1, characterized in that, The control box (4) has at least one spherical spring buckle (44) on its outer perimeter, and the inner sidewall of the fixing frame (122) has multiple hemispherical slots (1221) that match the spherical spring buckle (44).

6. The graphene-heated camouflage tactical glove according to claim 1, characterized in that, A protective plate (1222) is also provided on the upper outer side of the fixed frame (122). One side of the protective plate (1222) is hinged to the fixed frame (122), and the other side of the two are connected by a buckle.

7. A graphene-heated camouflage tactical glove according to claim 1, characterized in that, The outer sleeve (12) has a ventilation slit (123) on one side near the thumb or little finger, and a zipper for opening and closing is sewn into the ventilation slit (123).

8. A graphene-heated camouflage tactical glove according to claim 1, characterized in that, The outer sleeve (12) has an elastic band (124) on the outer side of the wrist, the inner side of the elastic band (124) has a Velcro velvet surface (1241), and the wrist of the outer sleeve (12) has a Velcro hook surface (125) that matches the Velcro velvet surface (1241).

9. A graphene-heated camouflage tactical glove according to claim 1, characterized in that, The outer sleeve (12) has wear-resistant rubber anti-slip protrusions (126) on the fingertips except for the index finger, and a touch part (127) is provided on the fingertips of the index finger of the outer sleeve (12).

10. A graphene-heated camouflage tactical glove according to claim 1, characterized in that, The outer sleeve (12) has a wear-resistant pad (128) on the back of the hand near the base of the fingers.

Images