Anti-static protective down jacket

Abstract

The invention relates to the technical field of down jackets, in particular to an electrostatic-eliminating protective down jacket which comprises a down jacket surface layer, a down jacket lining layer is arranged in the down jacket surface layer, a down jacket liner layer is arranged between the down jacket surface layer and the down jacket lining layer, and the down jacket comprises an electrostatic conduction mechanism and an electrostatic discharge mechanism. The static electricity conduction mechanism further comprises a first circuit arrangement module and a second circuit arrangement module, conduction circuits can be planned around the down jacket, static electricity on down feather of all parts of the down jacket can be conveniently conducted, the static electricity of the down feather is prevented from hurting the body of a wearer, and a second copper-plated coating layer makes contact with surrounding objects, so that the static electricity conduction effect is good. Static electricity on surrounding articles is conducted, the environmental safety is improved, the static electricity conduction efficiency of down feather at remote positions of some down jackets can be improved through the second conductive fiber lines, and the conduction effect is further improved.

Description

Technical Field

[0001] The invention relates to the technical field of down jackets, in particular to a static-eliminating protective down jacket. Background Art

[0002] Down jackets are the first choice for people to keep warm in winter. Because they are filled with duck down and other thermal insulation materials, they can effectively keep warm and are therefore widely used. There are several main causes of static electricity: contact charging, when two different objects come into contact, the negative charge of one will move to the other, which is called contact charging; friction charging, when two objects rub against each other, static electricity is generated, which is called friction charging; for example, static electricity generated when taking off clothes is caused by friction between clothes and the human body, or between clothes, which causes negative charges to move; stripping charging, static electricity generated when two objects that were originally in contact separate, is called stripping charging.

[0003] In the cold and dry weather in winter, people need to wear down jackets to keep warm. The friction between down jackets and the human body can easily cause static electricity on the human body. When it touches other people or metal conductors, discharge will occur. People will often and many times have a strong tingling sensation of electric shock due to static electricity, and even see sparks at night. In some occasions, it may even cause safety problems. It can be seen that static electricity affects the human body's experience of clothing, and many items in life also carry static electricity, such as televisions, cars, computers, etc. with electronic picture tubes. These static electricity may not have a significant impact on the human body or life, but long-term accumulation will also cause great harm to the body.

[0004] For this reason, a kind of anti-static protective down jacket is proposed. Summary of the invention

[0005] The purpose of the present invention is to provide a static-eliminating protective down jacket to solve the problem in the above background technology that the down jacket is easily charged with static electricity when in contact with the human body and surrounding objects are easily charged with static electricity.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a down jacket for anti-static protection, the down jacket comprising a down jacket surface layer, a down jacket lining layer arranged inside the down jacket surface layer, a down jacket lining layer arranged between the down jacket surface layer and the down jacket lining layer, the down jacket comprising an electrostatic conduction mechanism and an electrostatic release mechanism, the electrostatic conduction mechanism further comprising a first circuit arrangement module and a second circuit arrangement module, the first circuit arrangement module can conduct away the static electricity in the down jacket lining layer to remove the static electricity of the down jacket itself, and the second circuit arrangement module cooperates with the first circuit arrangement module to remove the static electricity carried by the surrounding objects contacted by the down jacket; The electrostatic release mechanism includes an electrostatic grounding module, an electrostatic neutralization module and an energized assembly module. The grounding module can conduct static electricity to the ground, so that the static electricity is separated from the down jacket. The electrostatic neutralization module can monitor the current on the down jacket and neutralize the static electricity on the down jacket in time. The energized assembly module is used to stably connect the electrostatic neutralization module, so that the electrostatic neutralization module can be stably connected to the down jacket and can automatically connect to the monitoring effect.

[0007] Preferably, the first circuit arrangement module includes a first conductive webbing arranged at the upper front end of the down jacket surface layer, the first conductive webbing is connected to the second conductive webbing, the second conductive webbing is arranged at the arm position of the down jacket surface layer, the lower part of the second conductive webbing is connected to the third conductive webbing, the third conductive webbing is arranged on both sides of the down jacket surface layer, the lower part of the front end of the down jacket surface layer is arranged with a seventh conductive webbing, the seventh conductive webbing is connected to the fourth conductive webbing, the rear part of the down jacket surface layer is arranged with a fifth conductive webbing and a sixth conductive webbing, the fifth conductive webbing and the sixth conductive webbing are respectively connected to the second conductive webbing and the third conductive webbing, and a first copper coating layer is arranged on the inner sides of the first conductive webbing, the second conductive webbing, the third conductive webbing, the fourth conductive webbing, the fifth conductive webbing, the sixth conductive webbing and the seventh conductive webbing.

[0008] Preferably, a conductive pocket is provided at the lower front end of the surface layer of the down jacket, the conductive pocket is woven from graphene conductive fiber threads, and the upper part of the conductive pocket is connected to a seventh conductive ribbon.

[0009] Preferably, the second circuit arrangement module includes a second copper-plated coating layer evenly arranged on the outside of the first conductive webbing, the second conductive webbing, the third conductive webbing, the fourth conductive webbing, the fifth conductive webbing, the sixth conductive webbing and the seventh conductive webbing, and the second copper-plated coating layer is fixed by the first conductive fiber line and connected to the second copper-plated coating layer.

[0010] Preferably, the inner layer of the down jacket restricts the flow of down through the second conductive fiber thread, and the second conductive fiber thread can evenly conduct the static electricity on the down in different parts of the inner layer of the down jacket, and several groups of second conductive fiber threads are respectively connected to the first conductive ribbon, the second conductive ribbon, the third conductive ribbon, the fourth conductive ribbon, the fifth conductive ribbon, the sixth conductive ribbon and the seventh conductive ribbon.

[0011] Preferably, the electrostatic grounding module includes a releaser base arranged at the front end of the down jacket surface layer, and the first conductive ribbons are connected to both sides of the releaser base. The rear part of the releaser base penetrates the down jacket lining layer and the down jacket liner layer through a connecting rod and is fixedly connected to a limiting plate. A conductive metal sheet is arranged at the front end of the releaser base, and the conductive metal sheet is connected to the first copper-plated coating layer on the inner side of the two groups of first conductive ribbons. A resistor is arranged at the bottom end of the conductive metal sheet.

[0012] Preferably, an LED display light is provided at the front end of the conductive metal sheet, and a socket is provided at the rear end of the conductive metal sheet. The socket passes through the limiting plate and is provided with a plug, and the plug is connected to a grounding clamp via a grounding wire.

[0013] Preferably, the electrostatic neutralization module includes an external releaser seat installed at the front end of the releaser base, a power storage controller is arranged at the front end of the external releaser seat, a negative ion generator and a current sensor are arranged at the rear end of the external releaser seat, the negative ion generator is fixedly connected to a copper card block through a first conductive circuit, the copper card block is fixedly installed at the rear end of the external releaser seat, the rear end of the copper card block is in contact with a copper spring, and the copper spring is connected to a first copper-plated coating layer through a second conductive circuit.

[0014] Preferably, the power-on assembly module includes a base arranged on both sides of the inside of the releaser base, a knob is rotatably connected to the middle of the base, both sides of the knob are fixedly connected to a cylinder, the inside of the cylinder is slidably connected to a limit block, the outside of the first copper-plated coating layer is fixedly connected to a clamping column, the other end of the clamping column is provided with an inclined surface and is clamped in a positioning hole, the positioning hole is provided on the copper clamping block, the copper clamping block is clamped in a clamping slot, and the clamping slot is provided at the front end of the base.

[0015] Preferably, the inner side of the cylinder and the outer side of the limit block are both polygonal, the limit block is matched with the cylinder, and a return spring is arranged between the cylinder and the limit block.

[0016] Beneficial effects of the present invention: 1. The present invention is conducive to planning conduction lines around the down jacket by designing the second circuit layout module to cooperate with the first circuit layout module, so as to facilitate the conduction of static electricity on the down in various parts of the down jacket, prevent the static electricity of the down from harming the body of the wearer, and contact the surrounding objects through the second copper-plated coating layer to conduct the static electricity on the surrounding objects, thereby improving the safety of the environment. The second conductive fiber line can improve the static electricity conduction efficiency of the down in remote parts of some down jackets, further improving the conduction effect.

[0017] 2. The present invention designs an electrostatic neutralization module in conjunction with an electrostatic grounding module, which is beneficial for conducting the conducted static electricity to the ground, thereby providing protection for the human body. It can also monitor the current on the first copper-plated coating layer in an environment where grounding to remove static electricity is inconvenient, and emit negative ions in time for neutralization, thereby facilitating the rapid removal of static electricity on down jackets and providing protection.

[0018] 3. The present invention is designed to cooperate with the electrostatic neutralization module to facilitate the rapid disassembly and assembly of the releaser external socket at the front end of the releaser base, facilitate the charging and replenishment of the power storage controller, ensure the use effect of the negative ion generator and the current sensor, facilitate recycling, and limit the copper card block so that the current sensor can be stably connected to the first copper-plated coating layer, thereby improving the stability of the current sensor detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] In order to more clearly illustrate the technical solutions in the present invention or the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only for the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0020] Figure 1 The overall three-dimensional schematic diagram of an anti-static protective down jacket according to an embodiment of the present invention Figure 1 ; Figure 2 The overall three-dimensional schematic diagram of an anti-static protective down jacket according to an embodiment of the present invention Figure 2 ; Figure 3 A partial cross-sectional schematic diagram of a static-eliminating protective down jacket according to an embodiment of the present invention; Figure 4 A static-eliminating protective down jacket according to an embodiment of the present invention Figure 1 The enlarged schematic diagram at A in the middle; Figure 5 It is a partial three-dimensional schematic diagram of a static-eliminating protective down jacket according to an embodiment of the present invention; Figure 6 This is a three-dimensional schematic diagram of a base of a static-eliminating protective down jacket according to an embodiment of the present invention; Figure 7 This is an exploded stereoscopic schematic diagram of a releaser base for a static-eliminating protective down jacket according to an embodiment of the present invention; Figure 8 This is a three-dimensional schematic diagram of an external connection seat (5) of a discharger for a down jacket for static electricity protection according to an embodiment of the present invention.

[0021] The markings in the figure are: 1. Down jacket surface layer; 11. Down jacket lining layer; 12. Down jacket lining layer; 2. First conductive webbing; 21. Second conductive webbing; 22. Third conductive webbing; 23. Fourth conductive webbing; 24. Fifth conductive webbing; 25. Sixth conductive webbing; 26. Seventh conductive webbing; 27. Conductive pocket; 3. First copper-plated coating layer; 31. Second copper-plated coating layer; 32. First conductive fiber line; 33. Second conductive fiber line; 4. Releaser base; 41. Limiting plate; 42. Conductive metal sheet; 43. LED display light; 44. Resistor ; 45. socket; 46. plug; 47. grounding wire; 48. grounding clamp; 5. external socket of releaser; 51. battery controller; 52. negative ion generator; 53. current sensor; 54. first conductive circuit; 55. copper block; 56. positioning hole; 57. copper spring; 58. second conductive circuit; 6. base; 61. knob; 62. cylinder; 63. limit block; 64. card column; 65. reset spring; 66. card slot; 7. zipper; 71. pull head; 72. pull handle; 73. light static elimination resistor; 74. light cover; 75. contact piece. DETAILED DESCRIPTION

[0022] In order to make the objectives, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with specific embodiments.

[0023] It should be noted that, unless otherwise defined, the technical terms or scientific terms used in the present invention should be understood by people with ordinary skills in the field to which the present invention belongs. The words "first", "second" and similar words used in the present invention do not indicate any order, quantity or importance, but are only used to distinguish different components. "Include" or "comprise" and similar words mean that the elements or objects appearing before the word include the elements or objects listed after the word and their equivalents, without excluding other elements or objects. "Connect" or "connected" and similar words are not limited to physical or mechanical connections, but may include electrical connections, whether direct or indirect. "Up", "down", "left", "right" and the like are only used to indicate relative positional relationships. When the absolute position of the described object changes, the relative positional relationship may also change accordingly.

[0024] See also Figures 1 to 8The present invention provides a technical solution: a static electricity protection down jacket, the down jacket comprises a down jacket surface layer 1, a down jacket lining layer 11 is arranged inside the down jacket surface layer 1, a down jacket lining layer 12 is arranged between the down jacket surface layer 1 and the down jacket lining layer 11, the down jacket comprises a static electricity conduction mechanism and a static electricity release mechanism, the static electricity conduction mechanism further comprises a first circuit arrangement module and a second circuit arrangement module, the first circuit arrangement module can conduct away the static electricity in the down jacket lining layer 12 to remove the static electricity of the down jacket itself, and the second circuit arrangement module cooperates with the first circuit arrangement module to remove the static electricity carried by the surrounding objects contacted by the down jacket; The electrostatic release mechanism includes an electrostatic grounding module, an electrostatic neutralization module and an energized assembly module. The grounding module can conduct static electricity to the ground, so that the static electricity is separated from the down jacket. The electrostatic neutralization module can monitor the current on the down jacket and neutralize the static electricity on the down jacket in time. The energized assembly module is used to stably connect the electrostatic neutralization module, so that the electrostatic neutralization module can be stably connected to the down jacket and can automatically connect to the monitoring effect.

[0025] As an embodiment of the present invention, Figure 1 and Figure 2 as well as Figure 3As shown, the first conductive ribbon 2 is connected to the second conductive ribbon 21, the second conductive ribbon 21 is arranged at the arm position of the down jacket surface layer 1, the lower part of the second conductive ribbon 21 is connected to the third conductive ribbon 22, the third conductive ribbon 22 is arranged on both sides of the down jacket surface layer 1, the lower part of the front end of the down jacket surface layer 1 is provided with a seventh conductive ribbon 26, the seventh conductive ribbon 26 is connected to the fourth conductive ribbon 23, the rear part of the down jacket surface layer 1 is provided with a fifth conductive ribbon 24 and a sixth conductive ribbon 25. The conductive webbing 25, the fifth conductive webbing 24 and the sixth conductive webbing 25 are connected to the second conductive webbing 21 and the third conductive webbing 22 respectively. The first conductive webbing 2, the second conductive webbing 21, the third conductive webbing 22, the fourth conductive webbing 23, the fifth conductive webbing 24, the sixth conductive webbing 25 and the seventh conductive webbing 26 are provided with a first copper-plated coating layer 3 on their inner sides. A conductive pocket 27 is provided at the lower front end of the down jacket surface layer 1. The conductive pocket 27 is made of graphene conductive fiber. The conductive pocket 27 is woven with a seventh conductive ribbon 26 connected to the upper part of the conductive pocket 27. When in use, the static electricity of the down on the front chest of the down jacket liner layer 12 is conducted through the first conductive ribbon 2 and the first copper-plated coating layer 3 inside the seventh conductive ribbon 26, the static electricity of the down on the sleeves of the down jacket liner layer 12 is conducted through the first copper-plated coating layer 3 inside the third conductive ribbon 22, the static electricity of the down on the back of the down jacket liner layer 12 is conducted through the fifth conductive ribbon 24 and the first copper-plated coating layer 3 inside the fifth conductive ribbon 24, and then the static electricity of the hands is conducted through the seventh conductive ribbon 26 and the first copper-plated coating layer 3 inside the conductive pocket 27, and finally all the static electricity is conducted to the static electricity grounding module of the static electricity releaser through the second conductive ribbon 21 and the first copper-plated coating layer 3 inside the third conductive ribbon 22 for removal, which is conducive to planning the conduction line around the down jacket, facilitating the conduction of static electricity on the down in various parts of the down jacket, and preventing the static electricity of the down from harming the body of the wearer.

[0026] As an embodiment of the present invention, Figure 5 and Figure 6As shown, the second circuit arrangement module includes a second copper-plated coating layer 31 uniformly arranged on the outside of the first conductive webbing 2, the second conductive webbing 21, the third conductive webbing 22, the fourth conductive webbing 23, the fifth conductive webbing 24, the sixth conductive webbing 25 and the seventh conductive webbing 26, the second copper-plated coating layer 31 is fixed by the first conductive fiber line 32 and is connected to the second copper-plated coating layer 31, the down jacket liner layer 12 restricts the flow of down through the second conductive fiber line 33, and the second conductive fiber line 33 can uniformly conduct the static electricity on the down at different parts of the down jacket liner layer 12, and several groups of second conductive fiber lines 33 are respectively connected to the first conductive webbing 2, the second conductive webbing 21, the third conductive webbing 22, the fourth conductive webbing 23, the fifth conductive webbing 24, the sixth conductive webbing 25 The line arrangement of the first conductive webbing 2, the second conductive webbing 21, the third conductive webbing 22, the fourth conductive webbing 23, the fifth conductive webbing 24, the sixth conductive webbing 25 and the seventh conductive webbing 26 facilitates the outer second copper-plated coating layer 31 to contact different static-carrying objects in the surrounding area, and then the static electricity on the objects is conducted to the line of the first copper-plated coating layer 3 through the first conductive fiber line 32, and finally the static electricity on the down jacket is further guided to the first copper-plated coating layer 3 through the second conductive fiber line 33, which is beneficial for the second copper-plated coating layer 31 to contact the surrounding objects, conduct the static electricity on the surrounding objects, and improve the safety of the environment. In addition, the second conductive fiber line 33 can improve the static electricity conduction efficiency of down in remote parts of some down jackets, further improving the conduction effect.

[0027] As an embodiment of the present invention, Figure 5 and Figure 6As shown, the electrostatic grounding module includes a releaser base 4 arranged at the front end of the down jacket surface layer 1, the first conductive ribbons 2 are connected to both sides of the releaser base 4, the rear part of the releaser base 4 penetrates the down jacket lining layer 11 and the down jacket liner layer 12 through a connecting rod and is fixedly connected to a limiting plate 41, a conductive metal sheet 42 is arranged at the front end of the releaser base 4, the conductive metal sheet 42 is connected to the first copper-plated coating layer 3 on the inner side of the two groups of first conductive ribbons 2, a resistor 44 is arranged at the bottom end of the conductive metal sheet 42, an LED display light 43 is arranged at the front end of the conductive metal sheet 42, and a socket 45 is arranged at the rear end of the conductive metal sheet 42, and the socket 45 penetrates the limiting plate 41 A plug 46 is inserted, and the plug 46 is connected to a grounding clamp 48 through a grounding wire 47. The static neutralization module includes a releaser external seat 5 installed at the front end of the releaser base 4, and a storage controller 51 is arranged at the front end of the releaser external seat 5. A negative ion generator 52 and a current sensor 53 are arranged at the rear end of the releaser external seat 5. The negative ion generator 52 is fixedly connected to a copper card block 55 through a first conductive line 54. The copper card block 55 is fixedly installed at the rear end of the releaser external seat 5. The rear end of the copper card block 55 contacts a copper spring 57. The copper spring 57 is connected to the first copper-plated coating layer 3 through a second conductive line 58. Static electricity is generated by the first copper-plated coating layer 3. The coating layer 3 is transferred to the conductive metal sheet 42. The conductive metal sheet 42 displays the strength of static electricity through the light intensity of the LED display lamp 43. The discharge current is limited by the resistor 44 to avoid arc or electric shock. Then the current on the conductive metal sheet 42 is transferred to the grounding wire 47 through the connected socket 45 and plug 46. The grounding wire 47 is conducted to the ground through the grounding clamp 48. Then, when the environment is not suitable for grounding to remove static electricity, the current sensor 53 is connected to the first copper-plated coating layer 3 on the down jacket through the first conductive line 54, the copper card block 55, the positioning hole 56 and the copper spring 57. Then the current sensor 53 senses The current on the first copper-plated coating layer 3 is detected and the current information is transmitted to the power storage controller 51, and then the power storage controller 51 analyzes the information and instructs the negative ion generator 52 to work, and the power storage controller 51 is provided with a battery to power the negative ion generator 52 and the current sensor 53. Finally, the negative ion generator 52 emits negative ions to neutralize the ions on the first copper-plated coating layer 3, which is beneficial for conducting the conducted static electricity to the ground, so as to provide protection for the human body, and can monitor the current on the first copper-plated coating layer 3 in an environment where grounding to remove static electricity is inconvenient, and emit negative ions in time for neutralization, so as to quickly remove the static electricity on the down jacket and provide a protective effect.

[0028] As an embodiment of the present invention, Figure 7 and Figure 8As shown, the power-on assembly module includes a base 6 arranged on both sides of the releaser base 4, a knob 61 is rotatably connected to the middle of the base 6, and a cylinder 62 is fixedly connected to both sides of the knob 61. The cylinder 62 is internally slidably connected to a limited block 63, and a clamping column 64 is fixedly connected to the outer side of the first copper-plated coating layer 3. The other end of the clamping column 64 is provided with an inclined surface and is clamped in a positioning hole 56. The positioning hole 56 is provided on a copper clamping block 55. The copper clamping block 55 is clamped in a clamping slot 66. The clamping slot 66 is provided with a The front end of the base 6 is provided, the inner side of the cylinder 62 and the outer side of the limit block 63 are both polygonal, the limit block 63 is adapted to the cylinder 62, and a reset spring 65 is provided between the cylinder 62 and the limit block 63. The copper block 55 at the rear end of the releaser external seat 5 is inserted into the slot 66 provided on the base 6, and then the copper block 55 presses the slot 66 into the cylinder 62 along the inclined surface on the card column 64, and then the restoring force of the reset spring 65 drives the card column 64 to be inserted into the copper block 55 through the limit block 63. The copper block 55 is stably connected to the copper spring 57 in the positioning hole 56 opened on the block 55, so that the current sensor 53 is connected to the first copper-plated coating layer 3 for monitoring. Finally, the knob 61 is turned. Because the knob 61 is fixedly connected to the cylinder 62, the inner side of the cylinder 62 and the limit block 63 are both polygonal, so the knob 61 drives the inclined surface on the card column 64 to rotate 180 degrees toward the right through the cylinder 62 and the limit block 63, so that the copper block 55 can be moved along the card column 64 again. 4 presses the card slot 66 into the cylinder 62, so that the copper card block 55 is separated from the card slot 66, which is conducive to the rapid disassembly and assembly of the releaser external seat 5 at the front end of the releaser base 4, and is convenient for charging and replenishing the power storage controller 51, ensuring the use effect of the negative ion generator 52 and the current sensor 53, and facilitating recycling. The copper card block 55 can also be limited, so that the current sensor 53 is stably connected to the first copper-plated coating layer 3, thereby improving the detection stability of the current sensor 53.

[0029] As an embodiment of the present invention, Figure 1 and Figure 4As shown, a zipper 7 is provided at the front end of the surface layer 1 of the down jacket, a slider 71 is provided on the zipper 7, a pull handle 72 is hinged at the front end of the slider 71, a light static elimination resistor 73 is provided inside the pull handle 72, a light translucent cover 74 for observing the light of the light static elimination resistor 73 is provided at the front end of the light static elimination resistor 73, a contact piece 75 is provided at the outer end of the pull handle 72, and the contact piece 75 is connected to the light static elimination resistor 73. When the zipper is needed to put on and take off the down jacket, the hand contacts the contact piece 75 at the outer end of the pull handle 72, and the contact piece 75 guides the static electricity of the hand to the light static elimination resistor 73 inside the pull handle 72, and then the brightness of the light on the light static elimination resistor 73 is observed through the light translucent cover 74. The light on the light static elimination resistor 73 emits bright light, and the brightness of the light changes according to the size of the static electricity, which is conducive to detecting and removing static electricity on the hands during the process of putting on and taking off clothes, avoiding static electricity damage caused by the hand contacting the metal zipper 7, and making the static electricity removal effect of the down jacket more complete and comprehensive.

[0030] Working principle: When in use, static electricity of the down on the front chest of the down jacket liner layer 12 is conducted through the first conductive webbing 2 and the first copper-plated coating layer 3 on the inner side of the seventh conductive webbing 26, static electricity of the down on the sleeves of the down jacket liner layer 12 is conducted through the first copper-plated coating layer 3 on the inner side of the third conductive webbing 22, static electricity of the down on the back of the down jacket liner layer 12 is conducted through the fifth conductive webbing 24 and the first copper-plated coating layer 3 on the inner side of the fifth conductive webbing 24, and then static electricity of the hands is conducted through the seventh conductive webbing 26 and the first copper-plated coating layer 3 on the inner side of the conductive pocket 27, and finally all static electricity is conducted to the static electricity grounding module of the static discharger through the second conductive webbing 21 and the first copper-plated coating layer 3 on the inner side of the third conductive webbing 22 for removal; The circuit arrangement of the first conductive webbing 2, the second conductive webbing 21, the third conductive webbing 22, the fourth conductive webbing 23, the fifth conductive webbing 24, the sixth conductive webbing 25 and the seventh conductive webbing 26 facilitates the outer second copper-plated coating layer 31 to contact different surrounding static-charged objects, and then the static electricity on the objects is conducted to the circuit of the first copper-plated coating layer 3 through the first conductive fiber line 32, and finally the static electricity on the down jacket is further guided to the first copper-plated coating layer 3 through the second conductive fiber line 33; Insert the copper block 55 at the rear end of the releaser external socket 5 into the slot 66 provided on the base 6, then the copper block 55 presses the slot 66 into the cylinder 62 along the inclined surface on the clamping column 64, and then the restoring force of the limit block 63 drives the clamping column 64 to be inserted into the positioning hole 56 provided on the copper block 55 through the limit block 63, so that the copper block 55 is stably connected and contacts the copper spring piece 57, so that the current sensor 53 is connected to the first copper-plated coating layer 3 for monitoring, and finally the knob 61 is turned. Because the knob 61 is fixedly connected to the cylinder 62, and the inner side of the cylinder 62 and the limit block 63 are both polygonal, the knob 61 drives the inclined surface on the clamping column 64 to rotate 180 degrees toward the right through the cylinder 62 and the limit block 63, so that the copper block 55 can press the slot 66 into the cylinder 62 along the inclined surface of the clamping column 64 again, so that the copper block 55 is separated from the slot 66; Insert the copper block 55 at the rear end of the releaser external socket 5 into the slot 66 provided on the base 6, then the copper block 55 presses the slot 66 into the cylinder 62 along the inclined surface on the clamping column 64, and then the restoring force of the limit block 63 drives the clamping column 64 to be inserted into the positioning hole 56 provided on the copper block 55 through the limit block 63, so that the copper block 55 is stably connected and contacts the copper spring piece 57, so that the current sensor 53 is connected to the first copper-plated coating layer 3 for monitoring, and finally the knob 61 is turned. Because the knob 61 is fixedly connected to the cylinder 62, and the inner side of the cylinder 62 and the limit block 63 are both polygonal, the knob 61 drives the inclined surface on the clamping column 64 to rotate 180 degrees toward the right through the cylinder 62 and the limit block 63, so that the copper block 55 can press the slot 66 into the cylinder 62 along the inclined surface of the clamping column 64 again, so that the copper block 55 is separated from the slot 66; When putting on or taking off a down jacket with the zipper, the hand touches the contact piece 75 at the outer end of the handle 72. The contact piece 75 guides the static electricity of the hand to the light static elimination resistor 73 inside the handle 72. Then the brightness of the light on the light static elimination resistor 73 is observed through the light-transmitting cover 74. The light on the light static elimination resistor 73 emits bright light and changes the brightness according to the size of the static electricity.

[0031] It should be understood by those skilled in the art that the discussion of any of the above embodiments is merely illustrative and is not intended to imply that the scope of the present invention (including the claims) is limited to these examples. Under the concept of the present invention, the technical features in the above embodiments or different embodiments may also be combined, the steps may be implemented in any order, and there are many other variations of the different aspects of the present invention as described above, which are not provided in detail for the sake of simplicity.

[0032] The present invention is intended to cover all such substitutions, modifications and changes that fall within the broad scope of the appended claims. Therefore, any omissions, modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A down jacket for anti-static protection, comprising a down jacket surface layer (1), a down jacket lining layer (11) being arranged inside the down jacket surface layer (1), and a down jacket lining layer (12) being arranged between the down jacket surface layer (1) and the down jacket lining layer (11), characterized in that: The down jacket comprises an electrostatic conduction mechanism and an electrostatic release mechanism, the electrostatic conduction mechanism further comprising a first circuit arrangement module and a second circuit arrangement module, the first circuit arrangement module being capable of conducting away the static electricity in the inner liner layer (12) of the down jacket to remove the static electricity of the down jacket itself, and the second circuit arrangement module cooperating with the first circuit arrangement module to remove the static electricity carried by surrounding objects contacted by the down jacket; The electrostatic release mechanism includes an electrostatic grounding module, an electrostatic neutralization module and an energized assembly module. The grounding module can conduct static electricity to the ground, so that the static electricity is separated from the down jacket. The electrostatic neutralization module can monitor the current on the down jacket and neutralize the static electricity on the down jacket in time. The energized assembly module is used to stably connect the electrostatic neutralization module, so that the electrostatic neutralization module can be stably connected to the down jacket and can automatically connect to the monitoring effect.

2. The anti-static protective down jacket according to claim 1, characterized in that: The first circuit arrangement module comprises a first conductive webbing (2) arranged at the upper front end of the down jacket surface layer (1), the first conductive webbing (2) being connected to a second conductive webbing (21), the second conductive webbing (21) being arranged at the arm position of the down jacket surface layer (1), the lower part of the second conductive webbing (21) being connected to a third conductive webbing (22), the third conductive webbing (22) being arranged on both sides of the down jacket surface layer (1), the lower part of the front end of the down jacket surface layer (1) being provided with a seventh conductive webbing (26), the seventh conductive webbing (26) being connected to the first conductive webbing (21), and the second conductive webbing (21) being connected to the second conductive webbing (22). The fourth conductive webbing (23) is provided on the back of the down jacket surface layer (1), and the fifth conductive webbing (24) and the sixth conductive webbing (25) are respectively connected to the second conductive webbing (21) and the third conductive webbing (22), and the first conductive webbing (2), the second conductive webbing (21), the third conductive webbing (22), the fourth conductive webbing (23), the fifth conductive webbing (24), the sixth conductive webbing (25) and the seventh conductive webbing (26) are provided with a first copper-plated coating layer (3) on their inner sides.

3. The anti-static protective down jacket according to claim 2, characterized in that: A conductive pocket (27) is provided at the lower front end of the down jacket surface layer (1); the conductive pocket (27) is woven from graphene conductive fiber threads; and the upper portion of the conductive pocket (27) is connected to a seventh conductive ribbon (26).

4. The anti-static protective down jacket according to claim 2, characterized in that: The second circuit arrangement module comprises a second copper-plated coating layer (31) uniformly arranged on the outside of the first conductive webbing (2), the second conductive webbing (21), the third conductive webbing (22), the fourth conductive webbing (23), the fifth conductive webbing (24), the sixth conductive webbing (25) and the seventh conductive webbing (26), wherein the second copper-plated coating layer (31) is fixed by a first conductive fiber line (32) and is connected to the second copper-plated coating layer (31).

5. The anti-static protective down jacket according to claim 1, characterized in that: The down jacket inner layer (12) limits the flow of down through the second conductive fiber lines (33), and the second conductive fiber lines (33) can evenly conduct away static electricity on the down at different locations in the down jacket inner layer (12), and a plurality of groups of the second conductive fiber lines (33) are respectively connected to the first conductive webbing (2), the second conductive webbing (21), the third conductive webbing (22), the fourth conductive webbing (23), the fifth conductive webbing (24), the sixth conductive webbing (25), and the seventh conductive webbing (26).

6. The anti-static protective down jacket according to claim 5, characterized in that: The electrostatic grounding module comprises a releaser base (4) arranged at the front end of the down jacket surface layer (1), the first conductive ribbons (2) are connected to both sides of the releaser base (4), the rear part of the releaser base (4) penetrates the down jacket lining layer (11) and the down jacket liner layer (12) through a connecting rod and is fixedly connected to a limit plate (41), the front end of the releaser base (4) is provided with a conductive metal sheet (42), the conductive metal sheet (42) is connected to the first copper-plated coating layer (3) on the inner side of the two groups of first conductive ribbons (2), and the bottom end of the conductive metal sheet (42) is provided with a resistor (44).

7. The anti-static protective down jacket according to claim 6, characterized in that: An LED display light (43) is provided at the front end of the conductive metal sheet (42), and a socket (45) is provided at the rear end of the conductive metal sheet (42); the socket (45) penetrates the limiting plate (41) and is provided with a plug (46); the plug (46) is connected to a grounding clamp (48) via a grounding wire (47).

8. The anti-static protective down jacket according to claim 6, characterized in that: The static neutralization module comprises a releaser external seat (5) mounted at the front end of a releaser base (4); a power storage controller (51) is arranged at the front end of the releaser external seat (5); a negative ion generator (52) and a current sensor (53) are arranged at the rear end of the releaser external seat (5); the negative ion generator (52) is fixedly connected to a copper card block (55) via a first conductive line (54); the copper card block (55) is fixedly mounted at the rear end of the releaser external seat (5); the rear end of the copper card block (55) contacts a copper spring (57); and the copper spring (57) is connected to a first copper-plated coating layer (3) via a second conductive line (58).

9. The anti-static protective down jacket according to claim 6, characterized in that: The power-on assembly module comprises a base (6) arranged on both sides of the inside of the releaser base (4); a knob (61) is rotatably connected to the middle of the base (6); a cylinder (62) is fixedly connected to both sides of the knob (61); a limit block (63) is slidably connected to the inside of the cylinder (62); a clamping column (64) is fixedly connected to the outside of the first copper-plated coating layer (3); an inclined surface is provided at the other end of the clamping column (64) and is clamped in a positioning hole (56); the positioning hole (56) is provided on a copper clamping block (55); the copper clamping block (55) is clamped in a clamping slot (66); and the clamping slot (66) is provided at the front end of the base (6).

10. The anti-static protective down jacket according to claim 9, characterized in that: The inner side of the cylinder (62) and the outer side of the limit block (63) are both arranged in a polygonal shape; the limit block (63) is adapted to the cylinder (62); and a return spring (65) is arranged between the cylinder (62) and the limit block (63).

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