A temperature-controlled goose down jacket

Abstract

This invention relates to a temperature-controlled down jacket, comprising a garment body and a removable heated lining housed within the garment body. The heated lining includes a base layer, an insulation layer, and a heating layer for heating the lining. The heated lining also includes a replaceable layer located between the base layer and the heating layer. This replaceable layer includes a flame-retardant fabric layer, a heat-conducting element on one side of the flame-retardant fabric layer, and a heat-conducting matching element on a flexible flame-retardant heating tube. This temperature-controlled down jacket achieves uniform temperature conduction through the S-shaped flexible flame-retardant heating tube. The wire is sealed inside an insulating sleeve, concealing the flexible flame-retardant heating tube between the base layer and the insulation layer, effectively preventing the danger of wire pulling. The replaceable layer between the heating layer and the insulation layer facilitates easy replacement of both layers.

Description

Technical Field

[0001] This invention belongs to the field of down jacket technology, specifically relating to a goose down jacket with temperature regulation. Background Technology

[0002] Down jackets are garments designed for warmth, filled with down feathers to enhance insulation. When wearing a down jacket, the wearer needs to generate their own heat to keep the inside of the jacket within a certain temperature range, thus achieving the desired warmth. However, down jackets require the wearer to generate heat initially, making it difficult to quickly achieve a warming effect. Furthermore, the internal temperature of the down jacket cannot be controlled while wearing it, and is susceptible to external environmental influences, potentially leading to excessively low or high temperatures inside, which can affect the wearer's comfort.

[0003] To address the above issues, existing patent "CN215531758U" discloses a down jacket with automatic temperature regulation, relating to the field of down jacket technology. This down jacket with automatic temperature regulation includes a jacket body, sleeves, and pockets. The sleeves have elastic cuffs. The inner surface of the jacket body is connected to an inner compartment via a zipper. A power source, a controller, and a thermosensitive element are located within the inner compartment. This down jacket with automatic temperature regulation automatically maintains and regulates the internal temperature of the down jacket, resulting in good insulation and improved wearer comfort.

[0004] However, the aforementioned down jacket heating components with automatic temperature regulation are placed on the lining of the down jacket, and the heating pads are set separately, resulting in uneven heat distribution. This can easily cause temperature differences on the wearer's body, leading to colds. Furthermore, the exposed wires inside the down jacket require extra caution when wearing it, as active wearers are prone to pulling on the wires, which can be extremely dangerous. Moreover, disassembling and assembling the heating pads is extremely inconvenient when the down jacket needs to be washed. Summary of the Invention

[0005] The purpose of this invention is to provide a down jacket with temperature regulation in order to solve the above-mentioned problems.

[0006] The present invention achieves the above objectives through the following technical solutions:

[0007] A temperature-controlled goose down jacket includes a garment body and a removable heated lining disposed within the garment body. The heated lining includes a base layer, an insulation layer, and a heating layer for heating the heated lining. The heated lining also includes a replaceable layer disposed between the base layer and the heating layer.

[0008] The replacement layer includes a flame-retardant fabric layer, a heat transfer and heat conduction component disposed on one side of the flame-retardant fabric layer, and a heat transfer and heat conduction matching component disposed on the flexible flame-retardant heating tube.

[0009] The heat transfer and heat conduction component is provided with a heat conduction protrusion and positively adhered heat conduction fibers. The heat transfer and heat conduction matching component is provided with a matching groove through which the heat conduction protrusion slides. A locking block is provided on the side of the matching groove. A thermal expansion arch plate is provided inside the matching groove. Anti-adhesion heat conduction fibers are provided on one side of the thermal expansion arch plate.

[0010] Both positively bonded thermal conductive fibers and anti-bonded thermal conductive fibers include a conductive inner core and a flexible deformable sleeve wrapped around the conductive inner core. The ends of the flexible deformable sleeve are formed with hooks, and the hooks of the positively bonded thermal conductive fibers and anti-bonded thermal conductive fibers are in opposite directions.

[0011] Using the heating layer, after the heating layer is heated, the heat will be transferred to the base layer along the replacement layer to increase the overall temperature of the down jacket. When the internal temperature of the jacket is too high, the thermal expansion arch plate expands when heated, and the heat-conducting protrusions detach from the connection of the heat transfer matching parts. The positively and negatively adhered heat-conducting fibers are misaligned and separated to block further temperature transfer and achieve reasonable temperature control.

[0012] When the internal temperature of the garment decreases, the thermal expansion arch plate contracts upon cooling, and the positively adhesive thermal conductive fiber adheres to the negatively adhesive thermal conductive fiber. The thermal conductive protrusion reconnects with the thermally conductive matching component to raise the temperature of the down jacket and achieve reasonable temperature control.

[0013] As a further optimization of the present invention, the temperature sensor is used to detect the temperature inside the down jacket in real time, and its output terminal is connected to a controller. The output terminal of the controller is connected to the temperature control terminal of the heating element for adjusting the temperature of the heating element. In addition, the power supply is used to power the controller and the temperature sensor.

[0014] As a further optimization of the present invention, the conductive core is made of nano-silicon.

[0015] As a further optimization of the present invention, the material of the heat transfer and heat conduction component, the heat transfer and heat conduction matching component, the card block and the heat conduction protrusion are all nano-silicon, wherein two sets of card blocks are provided, and the card blocks are provided with protrusions that match the heat transfer and heat conduction component.

[0016] As a further optimization of the present invention, the flexible flame-retardant heating tube is S-shaped between the replacement layer and the insulation layer, and a straight portion is formed on the flexible flame-retardant heating tube.

[0017] As a further optimization of the present invention, the heating layer further includes a wire, and the outside of the wire is provided with a heat insulation ring, the heat insulation ring being made of silicone resin glass fiber.

[0018] As a further optimization of the present invention, a temperature-conducting plate is provided on one side of the heating element. The temperature-conducting plate has a zigzag structure and is made of copper.

[0019] As a further optimization of the present invention, the insulation layer includes an inner layer, a waterproof outer layer, and an interlayer disposed between the inner layer and the waterproof outer layer. The interior of the interlayer may be filled with one or more of cotton, duck down, or goose down, and the amount of down filling in the interlayer is less than the amount of down filling in the garment body.

[0020] As a further optimization of the present invention, the thermal expansion arch plate is a thermal expansion material with a bulging shape in the middle.

[0021] The beneficial effects of this invention are as follows:

[0022] (1) The present invention provides a flexible flame-retardant heating tube with an S-shaped bend, which surrounds the inner lining of the down jacket. The flexible flame-retardant heating tube has a built-in heating element to heat the flexible flame-retardant heating tube and conduct the rising temperature to the heat transfer component. The centralized distribution of the heat transfer component ensures that the wearer's body is heated evenly, and the temperature of the down jacket rises evenly, making it less likely to produce temperature differences.

[0023] (2) By sealing the wire inside the heat insulation ring and placing the heat insulation ring inside the flexible flame-retardant heating tube, the flexible flame-retardant heating tube is hidden between the base layer and the insulation layer. When the wearer wears the down jacket, the danger caused by the wire pulling can be effectively eliminated.

[0024] (3) The present invention provides a replacement layer between the heating layer and the insulation layer. The replacement layer is set by the snap-fit ​​between the heat transfer and heat conduction component and the heat transfer and heat conduction matching component. At the same time, the positive and negative adhesive heat conduction fibers are used to achieve the fixing effect. The heating layer and the insulation layer are not easy to separate, and the tensile strength is good. In addition, the heat transfer and heat conduction component, the heat transfer and heat conduction matching component and the positive and negative adhesive heat conduction fibers are all made of nano-silicon, which has good thermal conductivity, so as to maximize the heat transfer between the heating layer and the insulation layer and avoid heat loss. Attached Figure Description

[0025] Figure 1 This is a schematic diagram of the main structure of the present invention;

[0026] Figure 2 This is a front view schematic diagram of the structure of the heated inner lining of the present invention located near the chest and below;

[0027] Figure 3 This is a top-view axonometric structural schematic diagram of the heated inner lining of the present invention;

[0028] Figure 4 This is a schematic diagram of the layered front axonometric structure of the heating liner of the present invention;

[0029] Figure 5 This is a schematic diagram of the main view axonometric structure of the flexible flame-retardant heating tube of the present invention;

[0030] Figure 6 This is a schematic diagram of the internal partial cross-section of the flexible flame-retardant heating tube of the present invention, taken from a front axonometric view.

[0031] Figure 7 This is a front axonometric view of the disassembled heat transfer and heat conduction component and the heat transfer and heat conduction matching component of the present invention.

[0032] Figure 8 This is a side-view axonometric structural diagram of the disassembled heat transfer and heat conduction component and the heat transfer and heat conduction matching component of the present invention.

[0033] Figure 9 This is a front view schematic diagram of the heating lining of the present invention distributed at the collar and hem positions;

[0034] Figure 10 This is a schematic diagram of the main structure of the heated inner lining of the present invention distributed in the sleeve.

[0035] In the diagram: 1. Garment body; 2. Heated inner lining; 3. Base layer; 4. Replacement layer; 41. Flame-retardant fabric layer; 42. Heat transfer and conduction components; 43. Heat transfer and conduction matching components; 44. Heat conduction protrusion; 45. Positively adhered heat conduction fiber; 46. Matching groove; 47. Locking block; 48. Thermal expansion arch plate; 49. Reversely adhered heat conduction fiber; 5. Heating layer; 51. Power supply; 52. Controller; 53. Temperature sensor; 54. Flexible flame-retardant heating tube; 55. Heating element; 56. Heat conduction plate; 57. Wire; 58. Heat insulation ring; 59. Straight section; 6. Insulation layer; 61. Inner layer; 62. Waterproof outer layer; 63. Interlayer. Detailed Implementation

[0036] The present application will now be described in further detail with reference to the accompanying drawings. It should be noted that the following specific embodiments are only used to further illustrate the present application and should not be construed as limiting the scope of protection of the present application. Those skilled in the art can make some non-essential improvements and adjustments to the present application based on the above application content.

[0037] Example 1

[0038] like Figures 1-4 As shown, a temperature-controlled goose down jacket includes a garment body 1 and a removable heated inner lining 2 located inside the garment body 1 and below the chest. The heated inner lining 2 includes, from the inside out, a base layer 3, a replaceable layer 4, a heating layer 5, and an insulation layer 6. The base layer 3 is made of cotton.

[0039] like Figure 5 As shown, the heating layer 5 includes a power supply 51, a controller 52, a temperature sensor 53, a flexible flame-retardant heating tube 54, and a heating element 55 disposed within the flexible flame-retardant heating tube 54.

[0040] The temperature sensor 53 is used to detect the temperature inside the down jacket in real time, and its output terminal is connected to the controller 52. The output terminal of the controller 52 is connected to the temperature control terminal of the heating element 55, which is used to adjust the temperature of the heating element 55 and play the role of real-time temperature control. In addition, the power supply 51 is used to power the controller and the temperature sensor 53.

[0041] In this embodiment, during the heating process of the inner lining 2, the user first adjusts the temperature threshold range of the heating element 55 and uses the temperature sensor 53 to detect the temperature inside the garment 1 in real time. When the detected temperature of the garment 1 is higher or lower than the temperature threshold range of the heating element 5, the controller 52 controls the heating of the heating element 55 to achieve real-time temperature control.

[0042] like Figures 7-8 As shown, the replacement layer 4 includes a flame-retardant fabric layer 41, a heat transfer and heat conduction component 42 disposed on one side of the flame-retardant fabric layer 41, and a heat transfer and heat conduction matching component 43 disposed on the flexible flame-retardant heating tube 54.

[0043] The heat transfer and heat conduction component 42 is provided with a heat conduction protrusion 44 and a positively adhered heat conduction fiber 45. The heat transfer and heat conduction matching component 43 is provided with a matching groove 46 through which the heat conduction protrusion 44 slides. A locking block 47 is provided on the side of the matching groove 46. A thermal expansion arch plate 48 is provided inside the matching groove 46. A reverse-adhesion heat conduction fiber 49 is provided on one side of the thermal expansion arch plate 48.

[0044] Both the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 include a conductive inner core and a flexible deformable sleeve wrapped around the conductive inner core. The ends of the flexible deformable sleeve are formed with hooks, and the hooks of the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 are in opposite directions.

[0045] It is worth noting that the conductive core is made of nano-silicon. The nano-silicon in the positively bonded thermal conductive fiber 45 and the anti-bonded thermal conductive fiber 49 plays a good role in thermal conductivity and avoids heat loss. At the same time, the matching hooks make the positively bonded thermal conductive fiber 45 firmly bonded to the anti-bonded thermal conductive fiber 49.

[0046] During installation, the heat transfer and heat conduction component 42 first slides into the matching groove 46 through the heat conduction protrusion 44 and is locked onto the locking block 47. Then, the thermal expansion arch plate 48 is pressed, so that the thermal expansion arch plate 48 is in a reverse arch shape, and the anti-adhesion heat conduction fiber 49 is squeezed to contact the hook of the positive adhesion heat conduction fiber 45. Through the bonding of the positive adhesion heat conduction fiber 45 and the anti-adhesion heat conduction fiber 49, the heat transfer and heat conduction component 42 is stably fixed on the heat transfer and heat conduction matching component 43, which makes the connection between the replacement layer 4 and the insulation layer 6 firm and not easy to fall off.

[0047] The heat transfer and heat conduction component 42, the heat transfer and heat conduction matching component 43, the locking block 47, and the heat conduction protrusion 44 are all made of nano-silicon. There are two sets of locking blocks 47, and the locking blocks 47 are provided with protrusions that match the heat transfer and heat conduction component 42. Nano-silicon has good thermal conductivity and is used to conduct the heating temperature of the flexible flame-retardant heating tube 54 to avoid temperature loss.

[0048] The flexible flame-retardant heating tube 54 is S-shaped between the replacement layer 4 and the insulation layer 6, and a straight section 59 is formed on the flexible flame-retardant heating tube 54; the S-shaped flexible flame-retardant heating tube 54 makes the temperature inside the entire garment 1 rise in all directions, and has a good heat preservation effect.

[0049] like Figure 6 As shown, the heating layer 5 also includes a wire 57, and the outside of the wire 57 is provided with a heat insulation ring 58. The heat insulation ring 58 is made of silicone resin glass fiber; it serves to protect the wire 57. The heat insulation ring 58 covers the outside of the wire 57, so that the wire 57 has good bending resistance and good safety performance.

[0050] Using the heating layer 5, the heat will be transferred to the base layer 3 through the replacement layer 4 after the heating layer 5 is heated, which is used to increase the overall temperature of the down jacket. When the internal temperature of the jacket 1 is too high, the thermal expansion arch plate 48 expands when heated, the heat-conducting protrusion 44 is separated from the connection of the heat-conducting matching part 43, and the positively adhering heat-conducting fiber 45 and the anti-adhering heat-conducting fiber 49 are misaligned and separated, which is used to block the further transfer of temperature and achieve reasonable temperature control.

[0051] When the internal temperature of the garment body 1 drops, the thermal expansion arch plate 48 contracts upon cooling, and the positively adhering heat-conducting fiber 45 adheres to the negatively adhering heat-conducting fiber 49. The heat-conducting protrusion 44 reconnects with the heat transfer matching component 43 for heating up the down jacket, achieving reasonable temperature control.

[0052] A heat-conducting plate 56 is provided on one side of the heating element 55. The heat-conducting plate 56 has a zigzag structure and is made of copper. The zigzag structure is used to quickly conduct the temperature of the heating element 55.

[0053] The insulation layer 6 includes an inner layer 61, a waterproof outer layer 62, and an interlayer 63 disposed between the inner layer 61 and the waterproof outer layer 62. The interlayer 63 may be filled with one or more of cotton, duck down, or goose down, and the amount of down filling in the interlayer 63 is less than the amount of down filling in the garment body 1.

[0054] The waterproof outer layer 62 is in direct contact with the garment body 1. When the wearer is exercising outdoors, their body temperature will rise sharply. If the down jacket is taken off directly at this time, cold air will invade the wearer's body, making them prone to catching a cold. In this embodiment, the user can take off the garment body 1 directly, and the heat insulation layer 6 on the heated inner lining 2 will be exposed. It will play a role in keeping the wearer's torso (below the chest) warm and can effectively prevent the wearer from getting cold.

[0055] Example 2

[0056] like Figures 1-9 As shown, a down jacket with temperature regulation includes a garment body 1 and a removable heated inner lining 2 located inside the garment body 1 near the cuffs. The heated inner lining 2 includes, from the inside out, a base layer 3, a replacement layer 4, a heating layer 5, and an insulation layer 6.

[0057] like Figure 5 As shown, the heating layer 5 includes a power supply 51, a controller 52, a temperature sensor 53, a flexible flame-retardant heating tube 54, and a heating element 55 disposed within the flexible flame-retardant heating tube 54.

[0058] The temperature sensor 53 is used to detect the temperature inside the down jacket in real time, and its output terminal is connected to the controller 52. The output terminal of the controller 52 is connected to the temperature control terminal of the heating element 55, which is used to adjust the temperature of the heating element 55 and play the role of real-time temperature control. In addition, the power supply 51 is used to power the controller and the temperature sensor 53.

[0059] In this embodiment, during the heating process of the inner lining 2, the user first adjusts the temperature threshold range of the heating element 55 and uses the temperature sensor 53 to detect the temperature inside the garment 1 in real time. When the detected temperature of the garment 1 is higher or lower than the temperature threshold range of the heating element 5, the controller 52 controls the heating of the heating element 55 to achieve real-time temperature control.

[0060] like Figures 7-8 As shown, the replacement layer 4 includes a flame-retardant fabric layer 41, a heat transfer and heat conduction component 42 disposed on one side of the flame-retardant fabric layer 41, and a heat transfer and heat conduction matching component 43 disposed on the flexible flame-retardant heating tube 54.

[0061] The heat transfer and heat conduction component 42 is provided with a heat conduction protrusion 44 and a positively adhered heat conduction fiber 45. The heat transfer and heat conduction matching component 43 is provided with a matching groove 46 through which the heat conduction protrusion 44 slides. A locking block 47 is provided on the side of the matching groove 46. A thermal expansion arch plate 48 is provided inside the matching groove 46. A reverse-adhesion heat conduction fiber 49 is provided on one side of the thermal expansion arch plate 48.

[0062] Both the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 include a conductive inner core and a flexible deformable sleeve wrapped around the conductive inner core. The ends of the flexible deformable sleeve are formed with hooks, and the hooks of the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 are in opposite directions.

[0063] It is worth noting that the conductive core is made of nano-silicon. The nano-silicon in the positively bonded thermal conductive fiber 45 and the anti-bonded thermal conductive fiber 49 plays a good role in thermal conductivity and avoids heat loss. At the same time, the matching hooks make the positively bonded thermal conductive fiber 45 firmly bonded to the anti-bonded thermal conductive fiber 49.

[0064] During installation, the heat transfer and heat conduction component 42 first slides into the matching groove 46 through the heat conduction protrusion 44 and is locked onto the locking block 47. Then, the thermal expansion arch plate 48 is pressed, so that the thermal expansion arch plate 48 is in a reverse arch shape, and the anti-adhesion heat conduction fiber 49 is squeezed to contact the hook of the positive adhesion heat conduction fiber 45. Through the bonding of the positive adhesion heat conduction fiber 45 and the anti-adhesion heat conduction fiber 49, the heat transfer and heat conduction component 42 is stably fixed on the heat transfer and heat conduction matching component 43, which makes the connection between the replacement layer 4 and the insulation layer 6 firm and not easy to fall off.

[0065] The heat transfer and heat conduction component 42, the heat transfer and heat conduction matching component 43, the locking block 47, and the heat conduction protrusion 44 are all made of nano-silicon. There are two sets of locking blocks 47, and the locking blocks 47 are provided with protrusions that match the heat transfer and heat conduction component 42. Nano-silicon has good thermal conductivity and is used to conduct the heating temperature of the flexible flame-retardant heating tube 54 to avoid temperature loss.

[0066] The flexible flame-retardant heating tube 54 is S-shaped between the replacement layer 4 and the insulation layer 6, and a straight section 59 is formed on the flexible flame-retardant heating tube 54; the S-shaped flexible flame-retardant heating tube 54 makes the temperature inside the entire garment 1 rise in all directions, and has a good heat preservation effect.

[0067] like Figure 6 As shown, the heating layer 5 also includes a wire 57, and the outside of the wire 57 is provided with a heat insulation ring 58. The heat insulation ring 58 is made of silicone resin glass fiber; it serves to protect the wire 57. The heat insulation ring 58 covers the outside of the wire 57, so that the wire 57 has good bending resistance and good safety performance.

[0068] A heat-conducting plate 56 is provided on one side of the heating element 55. The heat-conducting plate 56 has a zigzag structure and is made of copper. The zigzag structure is used to quickly conduct the temperature of the heating element 55.

[0069] The insulation layer 6 includes an inner layer 61, a waterproof outer layer 62, and an interlayer 63 disposed between the inner layer 61 and the waterproof outer layer 62. The interlayer 63 may be filled with one or more of cotton, duck down, or goose down, and the amount of down filling in the interlayer 63 is less than the amount of down filling in the garment body 1.

[0070] The waterproof outer layer 62 is in direct contact with the garment body 1. When the wearer is exercising outdoors, their body temperature will rise sharply. If the down jacket is taken off directly at this time, cold air from the outside will invade the wearer's body, making it easy to catch a cold. In this embodiment, the user can take off the garment body 1 directly, and the heat insulation layer 6 on the heated inner lining 2 will be exposed, which will play a role in keeping the wearer's sleeves warm and can effectively prevent the wearer's arms from getting cold.

[0071] Example 3

[0072] like Figures 1-10 As shown, a temperature-controlled goose down jacket includes a garment body 1 and a removable heated inner lining 2 located inside the garment body 1 near the collar and hem. The heated inner lining 2 includes, from the inside out, a base layer 3, a replaceable layer 4, a heating layer 5, and an insulation layer 6.

[0073] like Figure 5 As shown, the heating layer 5 includes a power supply 51, a controller 52, a temperature sensor 53, a flexible flame-retardant heating tube 54, and a heating element 55 disposed within the flexible flame-retardant heating tube 54.

[0074] The temperature sensor 53 is used to detect the temperature inside the down jacket in real time, and its output terminal is connected to the controller 52. The output terminal of the controller 52 is connected to the temperature control terminal of the heating element 55, which is used to adjust the temperature of the heating element 55 and play the role of real-time temperature control. In addition, the power supply 51 is used to power the controller and the temperature sensor 53.

[0075] In this embodiment, during the heating process of the inner lining 2, the user first adjusts the temperature threshold range of the heating element 55 and uses the temperature sensor 53 to detect the temperature inside the garment 1 in real time. When the detected temperature of the garment 1 is higher or lower than the temperature threshold range of the heating element 5, the controller 52 controls the heating of the heating element 55 to achieve real-time temperature control.

[0076] like Figures 7-8 As shown, the replacement layer 4 includes a flame-retardant fabric layer 41, a heat transfer and heat conduction component 42 disposed on one side of the flame-retardant fabric layer 41, and a heat transfer and heat conduction matching component 43 disposed on the flexible flame-retardant heating tube 54.

[0077] The heat transfer and heat conduction component 42 is provided with a heat conduction protrusion 44 and a positively adhered heat conduction fiber 45. The heat transfer and heat conduction matching component 43 is provided with a matching groove 46 through which the heat conduction protrusion 44 slides. A locking block 47 is provided on the side of the matching groove 46. A thermal expansion arch plate 48 is provided inside the matching groove 46. A reverse-adhesion heat conduction fiber 49 is provided on one side of the thermal expansion arch plate 48.

[0078] Both the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 include a conductive inner core and a flexible deformable sleeve wrapped around the conductive inner core. The ends of the flexible deformable sleeve are formed with hooks, and the hooks of the positively adhesive thermal conductive fiber 45 and the anti-adhesive thermal conductive fiber 49 are in opposite directions.

[0079] It is worth noting that the conductive core is made of nano-silicon. The nano-silicon in the positively bonded thermal conductive fiber 45 and the anti-bonded thermal conductive fiber 49 plays a good role in thermal conductivity and avoids heat loss. At the same time, the matching hooks make the positively bonded thermal conductive fiber 45 firmly bonded to the anti-bonded thermal conductive fiber 49.

[0080] During installation, the heat transfer and heat conduction component 42 first slides into the matching groove 46 through the heat conduction protrusion 44 and is locked onto the locking block 47. Then, the thermal expansion arch plate 48 is pressed, so that the thermal expansion arch plate 48 is in a reverse arch shape, and the anti-adhesion heat conduction fiber 49 is squeezed to contact the hook of the positive adhesion heat conduction fiber 45. Through the bonding of the positive adhesion heat conduction fiber 45 and the anti-adhesion heat conduction fiber 49, the heat transfer and heat conduction component 42 is stably fixed on the heat transfer and heat conduction matching component 43, which makes the connection between the replacement layer 4 and the insulation layer 6 firm and not easy to fall off.

[0081] The heat transfer and heat conduction component 42, the heat transfer and heat conduction matching component 43, the locking block 47, and the heat conduction protrusion 44 are all made of nano-silicon. There are two sets of locking blocks 47, and the locking blocks 47 are provided with protrusions that match the heat transfer and heat conduction component 42. Nano-silicon has good thermal conductivity and is used to conduct the heating temperature of the flexible flame-retardant heating tube 54 to avoid temperature loss.

[0082] The flexible flame-retardant heating tube 54 is S-shaped between the replacement layer 4 and the insulation layer 6, and a straight section 59 is formed on the flexible flame-retardant heating tube 54; the S-shaped flexible flame-retardant heating tube 54 makes the temperature inside the entire garment 1 rise in all directions, and has a good heat preservation effect.

[0083] like Figure 6 As shown, the heating layer 5 also includes a wire 57, and the outside of the wire 57 is provided with a heat insulation ring 58. The heat insulation ring 58 is made of silicone resin glass fiber; it serves to protect the wire 57. The heat insulation ring 58 covers the outside of the wire 57, so that the wire 57 has good bending resistance and good safety performance.

[0084] A heat-conducting plate 56 is provided on one side of the heating element 55. The heat-conducting plate 56 has a zigzag structure and is made of copper. The zigzag structure is used to quickly conduct the temperature of the heating element 55.

[0085] The insulation layer 6 includes an inner layer 61, a waterproof outer layer 62, and an interlayer 63 disposed between the inner layer 61 and the waterproof outer layer 62. The interlayer 63 may be filled with one or more of cotton, duck down, or goose down, and the amount of down filling in the interlayer 63 is less than the amount of down filling in the garment body 1.

[0086] The waterproof outer layer 62 is in direct contact with the garment body 1. When the wearer is exercising outdoors, their body temperature will rise sharply. If the down jacket is taken off directly at this time, cold air from the outside will invade the wearer's body, making it easy to catch a cold. In this embodiment, the user can take off the garment body 1 directly, and the heat insulation layer 6 on the heated inner lining 2 will be exposed, preventing cold air from entering the body from the wearer's collar and hem, making it less likely to catch a cold.

[0087] The embodiments described above are merely examples of several implementations of the present invention, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the present invention, and these modifications and improvements all fall within the scope of protection of the present invention.

Claims

1. A temperature-regulated eiderdown jacket comprising a jacket body (1) and a heating lining (2) detachably arranged in the jacket body (1), wherein, The heating lining (2) comprises a base layer (3), a heat preservation layer (6) and a heating layer (5) for heating the heating lining (2), characterized in that the heating lining (2) further comprises a replacement layer (4) arranged between the base layer (3) and the heating layer (5). The replacement layer (4) comprises a flame-retardant fabric layer (41), a temperature-conducting member (42) arranged on one side of the flame-retardant fabric layer (41), and a temperature-conducting matching member (43) arranged on the flexible flame-retardant heating pipe (54). The temperature-conducting member (42) is provided with a temperature-conducting protruding part (44) and a positive adhesion temperature-conducting fiber (45), the temperature-conducting matching member (43) is provided with a matching groove (46) through which the temperature-conducting protruding part (44) slides, the side of the matching groove (46) is provided with a clamping block (47), and the inside of the matching groove (46) is provided with a thermal expansion arching plate (48), one side of the thermal expansion arching plate (48) is provided with a reverse adhesion temperature-conducting fiber (49). The positive adhesion temperature-conducting fiber (45) and the reverse adhesion temperature-conducting fiber (49) each comprise a conductive inner core and a flexible deformation sleeve wrapped outside the conductive inner core, the end of the flexible deformation sleeve is formed with a hook, and the directions of the hooks of the positive adhesion temperature-conducting fiber (45) and the reverse adhesion temperature-conducting fiber (49) are opposite. The heating layer (5) is used to realize that, after the heating layer (5) is heated, the heat is transmitted to the base layer (3) through the replacement layer (4), so as to improve the overall temperature of the down jacket, when the internal temperature of the jacket (1) is too high, the thermal expansion arching plate (48) expands due to heat, the temperature-conducting protruding part (44) is disconnected from the temperature-conducting matching member (43), and the positive adhesion temperature-conducting fiber (45) and the reverse adhesion temperature-conducting fiber (49) are dislocated to be separated, so as to block the further transmission of temperature and realize reasonable temperature control. When the internal temperature of the jacket (1) decreases, the thermal expansion arching plate (48) shrinks due to cold, the positive adhesion temperature-conducting fiber (45) is adhered to the reverse adhesion temperature-conducting fiber (49) by the hook, the temperature-conducting protruding part (44) is reconnected with the temperature-conducting matching member (43), and the jacket is warmed, so as to realize reasonable temperature control.

2. The temperature-regulated goose down jacket according to claim 1, characterized in that: The heating layer (5) further comprises a temperature sensor (53) for detecting the temperature in the down jacket in real time, and the output end of the temperature sensor (53) is connected with a controller (52), the output end of the controller (52) is connected with a temperature control end of a heating sheet (55) for adjusting the temperature of the heating sheet (55), and a power supply (51) is used for power supply of the controller and the temperature sensor (53).

3. The temperature-regulated goose down jacket according to claim 1, wherein: The material of the conductive inner core is nano silicon.

4. The temperature-regulated goose down jacket according to claim 1, wherein: The materials of the temperature-conducting member (42), the temperature-conducting matching member (43), the clamping block (47) and the temperature-conducting protruding part (44) are all nano silicon, two groups of clamping blocks (47) are arranged, and the clamping block (47) is provided with a protruding part matched with the temperature-conducting member (42).

5. The temperature-regulated goose down jacket according to claim 1, wherein: The flexible flame-retardant heating pipe (54) is S-shapedly bent between the replacement layer (4) and the heat preservation layer (6), and the flexible flame-retardant heating pipe (54) is formed with a flat part (59).

6. The temperature-regulated goose down jacket according to claim 1, wherein: The heating layer (5) further comprises a wire (57), an outer part of the wire (57) is provided with a heat insulation sleeve ring (58), and the heat insulation sleeve ring (58) is made of silica glass fiber.

7. The temperature-regulated goose down jacket according to claim 2, wherein: One side of the heating sheet (55) is provided with a temperature guide plate (56), the temperature guide plate (56) is in a zigzag structure, the temperature guide plate (56) is made of copper, and the temperature guide plate (56) is in a zigzag structure.

8. The temperature-regulated goose down jacket according to claim 1, wherein: The heat preservation layer (6) comprises an inner layer (61), a waterproof outer layer (62) and a sandwich layer (63) arranged between the inner layer (61) and the waterproof outer layer (62), the sandwich layer (63) is filled with one or more of cotton, duck down or goose down, and the amount of down in the sandwich layer (63) is less than the amount of down in the garment body (1).

9. The temperature-regulated goose down jacket of claim 1, wherein: The heat expansion arching plate (48) is a heat expansion material with a drum-shaped middle part.

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