Diving glove

Abstract

The utility model relates to a diving glove in the technical field of diving appliances, which comprises a rubber glove body and a protective component, the protective component comprises a wrist protective plate, a thumb protective plate, a fixing plate and a connecting band, one end of the connecting band is connected with a nail sleeve, and a finger hole is arranged between the nail sleeve and a nail piece; by additionally arranging the protection assembly, the flexibility of the diving glove in underwater operation is improved, the wrist protection plate, the thumb protection plate and the fixing plate play a role in protecting wrists / joints, and damage caused by collision with underwater objects during diving is reduced; the connecting pieces, the nail pieces and the finger holes have the effect of changing the diving glove, when a user stretches out the distal phalanx of the finger portion through the finger holes, the nail pieces and the finger portion form an oblique angle of 15-30 degrees, the effect of assisting in grasping is achieved, and therefore the road holding force of the diving glove is increased. And the fingertip part of the diving glove is still flexible and is not covered and blocked by the diving glove, so that the delay of underwater operation caused by inconvenient or inflexible operation is reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of diving equipment, in particular to a pair of diving gloves. Background Technique

[0002] Diving refers to activities carried out underwater, usually requiring the use of breathing equipment such as diving gear or scuba to breathe the air underwater. Diving can be divided into various types, including recreational diving, technical diving, free diving, etc. Diving is not only an entertainment activity but also a scientific research and commercial activity.

[0003] Diving gloves are an important part of diving equipment. Their main function is to protect the diver's hands from harm while providing sufficient touch and flexibility for easy operation of diving equipment. Diving gloves are usually made of wear-resistant and tear-resistant materials such as neoprene or nylon mixed rubber to adapt to the changing underwater environment. Their design usually includes a waterproof seal, an insulating layer, and sometimes cut-resistant protection to ensure the safety and comfort of the diver during underwater activities.

[0004] A Chinese patent with the reference publication number CN210988392U discloses a special diving glove with anti-slip and anti-scratch functions, specifically related to the technical field of special diving gloves. It includes a wrist protection sleeve. A working glove is fixedly connected to the top of the wrist protection sleeve. A protective sleeve is sleeved outside the working glove. An elastic band is fixedly connected to the bottom end of the rear side of the protective sleeve. A magic tape hook surface is fixedly connected to the bottom of the elastic band. A magic tape loop surface is fixedly connected to the rear side of the wrist protection sleeve. Swimming assistance cloths are fixedly connected between the fingers of the protective sleeve. By pulling the magic tape hook surface to separate it from the magic tape loop surface, and then pulling the elastic band to peel off the protective sleeve from the working glove to expose the working glove, the staff can use the working glove for fine operations, which facilitates the operation of the staff and also avoids the situation of the staff working with bare hands, thus protecting the safety of the staff.

[0005] Although this patent has a metal layer on the outer sides of the thumb, index finger, and middle finger of the protective glove, which facilitates underwater excavation by the staff, and the wear-resistant layer can increase the wear resistance of the operating part during excavation and also achieve the purpose of preventing damage. Compared with the prior art, it has made progress in terms of damage prevention. However, it does not truly achieve the function of performing delicate operations using work gloves. The wear-resistant layer of this structure is not a detachable structure and still adopts the method of wrapping the fingertip part. When the finger moves, this part is still subject to certain obstacles, which may cause inconvenience during underwater operations. In addition, the metal layer is built into the interior of the glove, and this design undoubtedly increases the operating force of the user. Due to the multi-layer stacking inside, additional force needs to be applied when moving the fingers. During underwater operations, this movement method is more likely to cause muscle cramps or finger fatigue. When in use, its structure needs to be further processed and improved, which increases the procedures and reduces the work efficiency. Therefore, the inventor has proposed a diving glove to solve the above-mentioned technical problems. Summary of the Utility Model

[0006] The utility model aims to overcome the above deficiencies and provides a technical solution that can solve the above problems.

[0007] A diving glove includes a rubber sleeve body and a protective component installed on the outer surface of the rubber sleeve body. The protective component includes a wrist guard plate, a thumb guard plate, a fixing plate, and a connecting strap. The fixing plate and the wrist guard plate are respectively in contact with one end of the connecting strap. The fixing plate is located at one end of the wrist guard plate. The thumb guard plate and the wrist guard plate are in a detachable structure. One end of the connecting strap is connected to a nail sleeve. The nail sleeve is in contact with one end of the connecting strap through a connecting piece. One end of the nail sleeve is a nail piece. A finger hole is formed between the nail sleeve and the nail piece. The finger hole penetrates the surface of the nail sleeve and extends into the interior of the rubber sleeve body. One end of the rubber sleeve body is a finger sleeve.

[0008] Furthermore, an adjusting strap for adjusting the tightness is connected to the surface of the finger sleeve, a pressure strap for reducing the inflow of liquid into the interior of the rubber sleeve body is connected to the surface of the rubber sleeve body, and a rubber band for reducing the inflow of liquid into the interior of the rubber sleeve body is provided at the edge of the finger sleeve;

[0009] The adjusting strap can adjust the fastening degree of the finger sleeve according to personal comfort. The pressure strap connected to the surface of the rubber sleeve body for reducing the inflow of liquid into the interior of the rubber sleeve body helps to improve the waterproof performance of the finger sleeve and prevent liquid penetration. The edge of the finger sleeve is a rubber band for reducing the inflow of liquid into the interior of the rubber sleeve body, which further enhances the sealing performance of the finger sleeve, ensures that liquid will not seep into the interior along the edge, and while ensuring the flexibility of the fingertip part, reduces the probability of the palm interior being soaked by liquid.

[0010] Furthermore, a fixing strap for facilitating finger wearing is connected to the surface of the first glove. There is a gap between the fixing strap and the first glove. Anti-slip patterns for increasing friction are provided on the surface of the rubber sleeve body. The fixing strap provides a grasping effect, ensuring a firm connection between the wearer's finger and the first glove during use and preventing slippage. This design not only improves the convenience of wearing but also enhances the safety during use. When operating underwater or using in a slippery environment, the anti-slip patterns can increase the contact area, improving the stability and controllability of the operator.

[0011] Furthermore, a cemented carbide block is installed between the first glove and the connecting piece. The cemented carbide block is located on the surface of the connecting piece. The first glove, the connecting piece, and the cemented carbide block are of an independent structure. The independent structure of the first glove, the connecting piece, and the cemented carbide block enables them not to conflict with each other during movement. The connecting piece is located at the carpal and metacarpal bones in the palm, playing a role in limiting the position of the first glove. The first glove is located at the middle phalanx where the finger joints of the palm intersect. The installation positions of the first glove and the connecting piece are both bones in the palm that cannot move flexibly, playing a role in limiting and preventing the component from falling during use. The cemented carbide block is located at the tip of the metacarpal bone, increasing the self-protection ability of the user during underwater operation and enabling the operator to have a certain attack power underwater.

[0012] Furthermore, a buckle for facilitating thumb wearing is connected to the surface of the thumb guard. The buckle provides a quick and convenient wearing method, ensuring that the user can easily insert the thumb into the thumb guard and quickly fix it through the buckle, thereby improving the wearing efficiency and reducing the inconvenience during wearing. In addition, the design of the buckle can be appropriately adjusted according to the size of the user's thumb to achieve the best fit and comfort, ensuring stable support and protection during use. With the separated structure between the thumb guard and the wrist guard, the interference between the two during mutual movement is reduced. While increasing flexibility, the thumb guard and the wrist guard provide protection for the hand, reducing the damage suffered when the underwater object expands due to the water flow and impacts the user's hand.

[0013] Furthermore, the first glove is made of stainless steel material. The stainless steel material has good corrosion resistance, relatively high strength, is easy to process and form, and has a relatively low cost. The corrosion resistance of stainless steel enables the first glove to maintain good performance in various environments, not easy to rust, and extends the service life. Its strength and toughness are also sufficient to cope with the wear and impact during underwater use. In addition, stainless steel has good processing performance and can be easily manufactured into complex shapes and structures. The first glove is set according to the length of the phalanx body, extending to the middle phalanx where the finger joints intersect, and finger holes are provided near the middle phalanx to prevent the first glove from restricting or hindering the movement of the finger joints.

[0014] The fingernail piece is made of cemented carbide material. The cemented carbide material is mainly characterized by high hardness, strong wear resistance and good high-temperature resistance. Cemented carbide is a composite material made by powder metallurgy technology, usually sintered from metal powders such as tungsten and cobalt. Due to its high hardness, the fingernail piece can remain sharp during underwater operations such as cutting and climbing, reduce wear, and improve work efficiency. At the same time, the high-temperature resistance of cemented carbide enables it to maintain good performance in temperature changes, not easily deformed or damaged. When the user extends the distal phalanx of the finger through the finger hole, the fingernail piece forms an angle of 15°-30° with the finger part, which is convenient for the user to assist in grasping during underwater operations or climbing, thereby increasing the grasping force and reducing the probability of swinging caused by the impact of water flow.

[0015] Furthermore, the connecting piece is made of rubber material; the rubber material has good elasticity, can absorb and relieve vibration and impact, thereby protecting the connecting piece and reducing the damage to the components connected to it. In addition, rubber has certain wear resistance, can extend the service life of the connecting piece, reduce the replacement frequency, and is suitable for a variety of chemical environments, not easily corroded. Moreover, the rubber material has a low cost, which is beneficial to reducing production costs. At the same time, using rubber material as the main component of the connecting piece avoids the connecting piece playing a restrictive or obstructive role when the nail cover is in motion. Using rubber material as the main component of the connecting piece is convenient for the user to wear and avoid the mutual conflict caused by the movement of the hardware.

[0016] Compared with the prior art, the beneficial effects of the present utility model are: by adding the wrist guard plate, thumb guard plate, fixing plate, connecting belt, nail cover, connecting piece, fingernail piece and finger hole, the flexibility of the diving glove during underwater operations is increased. The wrist guard plate, thumb guard plate and fixing plate play a role in protecting the wrist / joints and reducing the damage caused by collision with underwater objects during diving;

[0017] The connecting piece, fingernail piece and finger hole play an effect of changing the function of the diving glove. When the user extends the distal phalanx of the finger through the finger hole, the fingernail piece forms an angle of 15°-30° with the finger part, which is convenient for the user to assist in grasping during underwater operations or climbing, thereby increasing the grasping force and reducing the probability of swinging caused by the impact of water flow;

[0018] For the finger part extended through the finger hole, the fingertip part still retains flexibility, not hindered by the covering of the diving glove, and reduces the delay of underwater operations caused by inconvenient or inflexible operation. Description of the Drawings

[0019] Figure 1 is a three-dimensional view of a diving glove;

[0020] Figure 2Another perspective view of a diving glove;

[0021] Figure 3 An axonometric view of a diving glove;

[0022] Figure 4 Another axonometric view of a diving glove;

[0023] Figure 5 An axonometric view of the rubber sleeve of a diving glove;

[0024] Figure 6 An axonometric view of the protective component of a diving glove;

[0025] Figure 7 Another axonometric view of the protective component of a diving glove;

[0026] Figure 8 A schematic diagram of the partial usage state of a diving glove;

[0027] In the figure: rubber sleeve - 1, wrist guard - 2, thumb guard - 3, fixing plate - 4, connecting strap - 5, nail sleeve - 6, connecting piece - 7, nail piece - 8, finger hole - 9, finger sleeve - 10, adjusting strap - 11, pressing strap - 12, rubber band - 13, fixing strap - 14, anti-slip pattern - 15, cemented carbide block - 16, buckle - 17. Detailed implementation mode

[0028] The present utility model will be further described in detail below in conjunction with the accompanying drawings and the detailed implementation mode.

[0029] In this embodiment, please refer to Figures 1-8 , a diving glove implemented specifically includes a rubber sleeve 1 and a protective component installed on the outer surface of the rubber sleeve 1. The protective component includes a wrist guard 2, a thumb guard 3, a fixing plate 4, and a connecting strap 5. The fixing plate 4 and the wrist guard 2 are respectively in contact with one end of the connecting strap 5. The fixing plate 4 is located at one end of the wrist guard 2. The thumb guard 3 and the wrist guard 2 are in a separated structure. One end of the connecting strap 5 is connected with a nail sleeve 6. The nail sleeve 6 is in contact with one end of the connecting strap 5 through a connecting piece 7. One end of the nail sleeve 6 is a nail piece 8. A finger hole 9 is formed between the nail sleeve 6 and the nail piece 8. The finger hole 9 penetrates the surface of the nail sleeve 6 and extends into the interior of the rubber sleeve 1. One end of the rubber sleeve 1 is a finger sleeve 10.

[0030] The surface of the finger sleeve 10 is connected with an adjusting strap 11 for adjusting the tightness. The surface of the rubber sleeve 1 is connected with a pressing strap 12 for reducing the inflow of liquid into the interior of the rubber sleeve 1. The edge of the finger sleeve 10 is a rubber band 13 for reducing the inflow of liquid into the interior of the rubber sleeve 1;

[0031] The adjustment strap 11 can adjust the tightness of the finger cot 10 according to personal comfort, while the pressure strap 12 connected to the surface of the rubber sleeve body 1 for reducing the inflow of liquid into the rubber sleeve body 1 helps to improve the waterproof performance of the finger cot 10 and prevent liquid penetration; the edge of the finger cot 10 is a rubber band 13 for reducing the inflow of liquid into the rubber sleeve body 1, which further enhances the sealing of the finger cot, ensuring that liquid does not seep into the interior along the edge, while ensuring the flexibility of the fingertip part and reducing the probability of the palm interior being soaked by liquid.

[0032] A fixing strap 14 for facilitating finger wearing is connected to the surface of the nail sheath 6. There is a gap between the fixing strap 14 and the nail sheath 6. Anti-slip patterns 15 for increasing friction are provided on the surface of the rubber sleeve body 1; the fixing strap 14 provides a grasping effect, ensuring a firm connection between the wearer's finger and the nail sheath 6 during use and preventing slippage. This design not only improves the convenience of wearing but also enhances the safety during use; when operating underwater or using in a slippery environment, the anti-slip patterns 15 can increase the contact area, improving the stability and controllability of the operator.

[0033] A cemented carbide block 16 is installed between the nail sheath 6 and the connecting piece 7. The cemented carbide block 16 is located on the surface of the connecting piece 7. The nail sheath 6, the connecting piece 7, and the cemented carbide block 16 are of an independent structure; the setting of the independent structure among the nail sheath 6, the connecting piece 7, and the cemented carbide block 16 enables the nail sheath 6, the connecting piece 7, and the cemented carbide block 16 not to conflict with each other during movement. The connecting piece 7 is located at the carpal and metacarpal bones in the palm, playing a role in limiting the position of the nail sheath 6, while the nail sheath 6 is located at the middle phalanx where the middle finger joints of the palm intersect. The positions of the nail sheath 6 and the connecting piece 7 are both bones in the palm that cannot move flexibly, playing a role in limiting and preventing the component from falling during use. The cemented carbide block 16 is located at the tip of the metacarpal bone, increasing the self-protection ability of the user during underwater operation and enabling the operator to have a certain attacking power underwater.

[0034] A buckle 17 for facilitating thumb wearing is connected to the surface of the thumb guard 3; the buckle 17 provides a fast and convenient wearing method, ensuring that the user can easily insert the thumb into the thumb guard 3 and quickly fix it through the buckle 17, thus improving the wearing efficiency and reducing the inconvenience during wearing. In addition, the design of the buckle 17 can be appropriately adjusted according to the size of the user's thumb to achieve the best fit and comfort, ensuring stable support and protection during use. The setting of the separated structure between the thumb guard 3 and the wrist guard 2 reduces the hindrance when they move relative to each other, increasing flexibility while protecting the hand through the thumb guard 3 and the wrist guard 2, reducing the damage caused when the underwater object expands due to the water flow and collides with the user's hand.

[0035] The first sheath 6 is made of stainless steel material. Stainless steel has good corrosion resistance, relatively high strength, is easy to process and form, and has a relatively low cost. Moreover, the corrosion resistance of stainless steel enables the first sheath 6 to maintain good performance in various environments, not easy to rust, and extends its service life. Its strength and toughness are also sufficient to cope with the wear and impact during underwater use. In addition, stainless steel has good processing performance and can be easily manufactured into complex shapes and structures. The first sheath 6 is set according to the length of the phalanx body and extends to the middle phalanx that intersects with the finger joint. A finger hole 9 is provided near the middle phalanx to prevent the first sheath 6 from restricting or hindering the movement of the finger joint.

[0036] The nail piece 8 is made of cemented carbide material. Cemented carbide material is mainly characterized by high hardness, strong wear resistance and good high-temperature resistance. Cemented carbide is a composite material made by powder metallurgy technology and is usually sintered from metal powders such as tungsten and cobalt. Due to its high hardness, the nail piece 8 can remain sharp during underwater operations such as cutting and climbing, reduce wear, and improve work efficiency. At the same time, the high-temperature resistance of cemented carbide enables it to maintain good performance during temperature changes, not easy to deform or damage. When the user extends the distal phalanx of the finger through the finger hole 9, as Figure 8 shown, the nail piece 8 forms an oblique angle of 15°-30° with the finger part, which is convenient for the user to assist in grasping during underwater operations or climbing, thereby increasing the grasping force and reducing the probability of swinging caused by being impacted by the water flow. The finger sleeve 10 can be provided with a sheath for protecting the fingertip part. The sheath adopts a semi-connection method in which part of it is connected to the surface of the finger sleeve 10. By leaving an opening, it is convenient to flip the sheath. When protecting the fingertip part, the sheath can be flipped so that the protected fingertip is inside the sheath.

[0037] The connecting piece 7 is made of rubber material. Rubber material has good elasticity and can absorb and relieve vibration and impact, thereby protecting the connecting piece 7 and reducing damage to the connected components. In addition, rubber has certain wear resistance, can extend the service life of the connecting piece 7, reduce the replacement frequency, and is suitable for a variety of chemical environments, not easy to be corroded. Moreover, the rubber material has a low cost, which is beneficial to reducing production costs. At the same time, using rubber material as the main component of the connecting piece 7 avoids the connecting piece 7 restricting or hindering the movement of the first sheath 6 during movement. Using rubber material as the main component of the connecting piece 7 is convenient for the user to wear and at the same time avoids mutual conflicts caused by hardware activities.

[0038] The design key points of the present utility model lie in: by adding the wrist guard plate 2, thumb guard plate 3, fixing plate 4, connecting belt 5, nail sleeve 6, connecting piece 7, nail piece 8 and finger hole 9, the flexibility of the diving glove during underwater operations is increased. The wrist guard plate 2, thumb guard plate 3 and fixing plate 4 play a role in protecting the wrist / joints, reducing the damage caused by collisions with underwater objects during diving;

[0039] The connecting piece 7, nail piece 8 and finger hole 9 play an effect of changing the function of the diving glove. When the user extends the distal phalanx of the finger part through the finger hole 9, the nail piece 8 forms an oblique angle of 15° - 30° with the finger part, which is convenient for the user to assist in grasping during underwater operations or climbing, thereby increasing the grasping force and reducing the probability of swinging caused by being impacted by the water flow;

[0040] For the finger part extended through the finger hole 9, the fingertip part still retains flexibility and is not hindered by the covering of the diving glove, reducing the delay of underwater operations caused by inconvenient or inflexible operation.

[0041] The above content is a further detailed description of the present utility model in combination with specific preferred embodiments. It cannot be determined that the specific implementation of the present utility model is only limited to these descriptions. For those of ordinary skill in the technical field to which the present utility model belongs, without departing from the concept of the present utility model, several simple deductions or substitutions can still be made, which should all be regarded as the protection scope of the present utility model.

Claims

1. A diving glove, comprising a rubber sleeve and a protective component mounted on the outer surface of the rubber sleeve, characterized in that: The protective component includes a wrist guard, a thumb guard, a fixing plate and a connecting belt. The fixing plate and the wrist guard are respectively abutted against one end of the connecting belt. The fixing plate is located at one end of the wrist guard. The thumb guard and the wrist guard are separated into a separate structure. One end of the connecting belt is connected to a nail cover. The nail cover abuts against one end of the connecting belt through a connecting piece. One end of the nail cover is a nail plate. A finger hole is provided between the nail cover and the nail plate. The finger hole passes through the surface of the nail cover and extends to the inside of the rubber cover body. One end of the rubber cover body is a finger cover.

2. A diving glove according to claim 1, characterized in that: The surface of the finger sleeve is connected with an adjusting belt for adjusting the tightness, the surface of the rubber sleeve is connected with a pressing belt for reducing the flow of liquid into the rubber sleeve, and the edge of the finger sleeve is a rubber band for reducing the flow of liquid into the rubber sleeve.

3. A diving glove according to claim 1, characterized in that: The surface of the nail cover is connected with a fixing belt which is convenient for fingers to wear, a gap is provided between the fixing belt and the nail cover, and the surface of the rubber cover body is provided with anti-skid patterns for increasing friction.

4. A diving glove according to any one of claims 1 to 3, characterized in that: A hard alloy block is installed between the armor sleeve and the connecting piece. The hard alloy block is located on the surface of the connecting piece. The armor sleeve, the connecting piece and the hard alloy block form an independent structure.

5. A diving glove according to any one of claims 1 to 3, characterized in that: The surface of the thumb guard is connected with a buckle ring which is convenient for the thumb to wear.

6. A diving glove according to any one of claims 1 to 3, characterized in that: The nail cover is made of stainless steel material, and the nail plate is made of hard alloy material.

7. A diving glove according to any one of claims 1 to 3, characterized in that: The connecting piece is made of rubber material.

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