Novel far infrared floor warmer
By combining a heating glass plate, mica sheet, and heat insulation board, along with a graphene coating and indicator light panel, the problems of high energy consumption, significant safety hazards, and poor user experience of traditional heating devices are solved, achieving efficient, energy-saving, and safe heating effects.
Patent Information
- Application Number
- CN202520108821.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-17
- Publication Date
- 2026-02-10
- Estimated Expiration
- 2035-01-17
AI Technical Summary
Traditional heating devices suffer from problems such as high energy consumption, low heat utilization rate, uneven heating, overheating of the outer casing, significant safety hazards to users, and lack of intuitive operating status indicators.
The structure consists of a heating glass plate, mica sheet, and heat insulation plate arranged from bottom to top, combined with a graphene coating and warning light panel to ensure efficient use of heat energy and provide safety reminders.
It achieves efficient utilization of thermal energy, ensures external safety of the device, and enhances user interaction experience and ease of use.
Smart Images
Figure CN223896085U_ABST
Abstract
Description
Technical Field
[0001] This utility model belongs to the technical field of heating devices, specifically relating to a novel far-infrared floor heater. Background Technology
[0002] As people's demand for a comfortable living environment continues to increase, various heating devices have been widely used in homes, offices, and public facilities. Traditional heating devices mainly achieve indoor temperature rise through electric heating or gas heating.
[0003] Traditional heating methods typically rely on air convection for heat transfer, which easily dissipates heat, resulting in high energy consumption and limited heating effectiveness. Furthermore, uneven heat distribution from the heating elements in some devices further reduces energy efficiency.
[0004] In traditional heating devices, the insulation between the heating element and the outer casing is often inadequate, potentially leading to overheating of the casing and posing a risk of burns to users. Furthermore, short circuits or electrical leaks can occur during the heating process, increasing the safety hazards.
[0005] Most traditional heating devices lack intuitive indications of their operating status, making it difficult for users to understand the device's current working mode or malfunction, thus affecting the user experience and convenience.
[0006] Therefore, overcoming the shortcomings of the existing technology is an urgent problem to be solved in this technical field. Utility Model Content
[0007] In view of the technical problems mentioned in the background art, the purpose of this utility model is to provide a new type of far-infrared floor heater that arranges the heating glass plate, mica sheet and heat insulation plate from bottom to top, which can maximize the utilization of the heat energy of the heating glass plate, while ensuring the external safety and service life of the device. The user can clearly observe the operating status of the device through the light emitted by the indicator light panel, thus improving the interactive experience.
[0008] To achieve the above objectives, the present invention provides the following technical solution: a novel far-infrared floor heater, comprising a mounting bracket, an outer mounting frame connected to the top of the mounting bracket, and a mounting base plate connected to the bottom of the mounting bracket. The inner surface of the outer mounting frame is recessed with a mounting groove, in which a heat insulation plate and a mica sheet are respectively mounted. The mica sheet is positioned below the heat insulation plate. A glass mounting groove is recessed at the bottom edge of the mounting groove, in which a heating glass plate is embedded. The inner surface of the heating glass plate is coated with graphene. The heating glass plate, the mica sheet, and the heat insulation plate are arranged sequentially from bottom to top.
[0009] Furthermore, a component mounting groove is provided on one side of the mounting groove, and a wire-passing groove is formed between the component mounting groove and the mounting groove. A control component is installed inside the component mounting groove. Mounting posts are symmetrically provided on both sides of the inner side of the component mounting groove. An indicator light panel is installed on the mounting post. A connecting hole is symmetrically provided on both sides of the surface of the indicator light panel. The connecting hole corresponds to the mounting post and is connected and fixed to the mounting post by fasteners passing through the connecting hole, thereby fixing the indicator light panel inside the component mounting groove.
[0010] Furthermore, the lower two sides of the component mounting slot are symmetrically provided with light-emitting slots, which are correspondingly provided with the indicator light panel. The edge of the light-emitting slot is recessed with a lens mounting slot, in which a light source lens is embedded. A light-emitting LED bead is provided in the middle of the surface of the end of the indicator light panel facing the light source lens.
[0011] Furthermore, the heat insulation board and the mica sheet are fixedly attached to the mounting groove with adhesive.
[0012] Furthermore, the heating glass plate is fixed to the glass mounting groove by adhesive.
[0013] Furthermore, the light source lens is fixed to the lens mounting groove by adhesive.
[0014] The present invention has the following advantages: The top of the mounting bracket is connected to a mounting frame, the inner surface of which is recessed with a mounting groove. A heat insulation plate and a mica sheet are respectively installed in the mounting groove, with the mica sheet positioned below the heat insulation plate. A glass mounting groove is recessed at the bottom edge of the mounting groove, in which a heating glass plate is embedded. The inner surface of the heating glass plate is coated with graphene. The heating glass plate, the mica sheet, and the heat insulation plate are arranged sequentially from bottom to top. A component mounting groove is provided on one side of the mounting groove, and an indicator light plate is installed inside the component mounting groove. The novel far-infrared floor heater of this invention, with its heating glass plate, mica sheet, and heat insulation plate arranged from bottom to top, maximizes the utilization of the heating glass plate's heat energy while ensuring external safety and lifespan. The indicator light plate allows users to clearly observe the device's operating status, enhancing the interactive experience. Attached Figure Description
[0015] Figure 1 This is a schematic diagram of the overall three-dimensional structure of this utility model.
[0016] Figure 2 This is a three-dimensional structural diagram of the mounting frame of this utility model.
[0017] Figure 3 This is an exploded view of the mounting frame of this utility model.
[0018] Reference numerals: Mounting bracket 10; Mounting frame 20; Mounting base plate 30; Mounting groove 21; Heat insulation board 40; Mica sheet 50; Glass mounting groove 22; Heating glass plate 60; Graphene coating 61; Component mounting groove 23; Wiring groove 24; Control component 70; Mounting through post 231; Indicator light panel 80; Connection through hole 81; Light emission groove 232; Lens mounting groove 233; Light source lens 90; Light-emitting lamp bead 82. Detailed Implementation
[0019] like Figures 1 to 3 As shown, a novel far-infrared floor heater includes a mounting bracket 10. A mounting frame 20 is connected to the top of the mounting bracket 10, and a mounting base plate 30 is connected to the bottom of the mounting bracket 10. A mounting groove 21 is recessed on the inner surface of the mounting frame 20, in which a heat insulation plate 40 and a mica sheet 50 are respectively installed. The mica sheet 50 is positioned below the heat insulation plate 40. A glass mounting groove 22 is recessed at the bottom edge of the mounting groove 21, in which a heating glass plate 60 is embedded. The inner surface of the heating glass plate 60 is coated with a graphene coating 61. The heating glass plate 60, the mica sheet 50, and the heat insulation plate 40 are arranged sequentially from bottom to top. In use, the mounting base plate 30 is in contact with the ground, and the mounting frame 20 is supported by the mounting bracket 10. After power is applied, the graphene coating... Layer 61 heats up rapidly. The heating glass plate 60 releases heat in the form of far-infrared light waves. Far-infrared light waves are penetrating and can penetrate deep into the surface of objects, directly interacting with the human body and the environment to provide a deep heating effect. Far-infrared light waves avoid heat loss caused by air convection in traditional heating methods, and are highly energy-efficient. The mica sheet 50 blocks heat transfer to the insulation board 40 and provides insulation to prevent leakage and heat loss. The insulation board 40 further prevents heat from penetrating to the mounting frame 20, ensuring that the external temperature of the device is kept within a safe range and preventing burns to the user or overheating of the device casing. The heating glass plate 60, the mica sheet 50, and the insulation board 40 are arranged from bottom to top. This layout design can maximize the utilization of the heat energy of the heating glass plate while ensuring the external safety and service life of the device.
[0020] In practice, the heat insulation plate 40 and the mica sheet 50 are glued to the mounting groove 21 to ensure a tight fit and installation stability. The heating glass plate 60 is glued to the glass mounting groove 22 to ensure a firm position.
[0021] In practical implementation, a component mounting groove 23 is provided on one side of the mounting groove 21. A wire-passing groove 24 is opened between the component mounting groove 23 and the mounting groove 21. A control component 70 is installed inside the component mounting groove 23. Mounting posts 231 are symmetrically provided on both sides of the inner side of the component mounting groove 23. An indicator light plate 80 is installed on the mounting posts 231. A connecting hole 81 is symmetrically opened on both sides of the surface of the indicator light plate 80. The connecting hole 81 corresponds to the mounting post 231 and is connected and fixed to the mounting post 231 by fasteners passing through the connecting hole 81. Thus, the indicator light plate 80 is fixedly installed inside the component mounting groove 23. The structure is simple and the installation is convenient and stable.
[0022] In practical implementation, the lower two sides of the component mounting slot 23 are symmetrically provided with light-emitting slots 232, which are correspondingly arranged with the indicator light panel 80. The edge of the light-emitting slot 232 is recessed with a lens mounting slot 233, in which a light source lens 90 is embedded. The light source lens 90 is fixed to the lens mounting slot 233 with adhesive. The center of the surface of the indicator light panel 80 facing the light source lens 90 is provided with a light-emitting LED bead 82. In use, the light-emitting LED bead 82 on the indicator light panel 80 emits light under the drive of the control component 70. The light is focused and guided by the light source lens 90. The light source lens 90 optimizes the light distribution and evenly outputs the light outside the light-emitting slot 232. Different light states correspond to different working modes, such as heating, standby, or fault indication. Through the optimized design of the light emission direction, users can clearly observe the operating status of the device and improve the interactive experience.
[0023] In summary, the top of the mounting bracket 10 is connected to a mounting frame 20. The inner surface of the mounting frame 20 is recessed with a mounting groove 21, in which a heat insulation plate 40 and a mica sheet 50 are respectively installed. The mica sheet 50 is positioned below the heat insulation plate 40. The bottom edge of the mounting groove 21 is recessed with a glass mounting groove 22, in which a heating glass plate 60 is embedded. The inner surface of the heating glass plate 60 is coated with a graphene coating 61. The heating glass plate 60, the mica sheet 50, and the heat insulation plate 40 are arranged sequentially from bottom to top. One side of the mounting groove 21 is provided with a component mounting groove 23, inside which an indicator light plate 80 is installed. This novel far-infrared floor heater, with its heating glass plate, mica sheet, and heat insulation plate arranged from bottom to top, maximizes the utilization of the heating glass plate's heat energy while ensuring external safety and lifespan. The indicator light plate allows users to clearly observe the device's operating status, enhancing the interactive experience.
Claims
1. A novel far-infrared floor heater, characterized in that, It includes a mounting bracket (10), the top of which is connected to a mounting frame (20), and the bottom of which is connected to a mounting base plate (30). The inner surface of the mounting frame (20) is recessed with a mounting groove (21), in which a heat insulation plate (40) and a mica sheet (50) are respectively installed. The mica sheet (50) is located below the heat insulation plate (40). The bottom edge of the mounting groove (21) is recessed with a glass mounting groove (22), in which a heating glass plate (60) is embedded. The inner surface of the heating glass plate (60) is provided with a graphene coating (61). The heating glass plate (60), the mica sheet (50) and the heat insulation plate (40) are arranged sequentially from bottom to top.
2. The novel far-infrared floor heater according to claim 1, characterized in that, The mounting groove (21) has a component mounting groove (23) on one side. A wire-passing groove (24) is opened between the component mounting groove (23) and the mounting groove (21). A control component (70) is installed inside the component mounting groove (23). Mounting posts (231) are symmetrically arranged on both sides of the inner side of the component mounting groove (23). An indicator light plate (80) is installed on the mounting post (231). A connecting hole (81) is symmetrically opened on both sides of the surface of the indicator light plate (80). The connecting hole (81) corresponds to the mounting post (231) and is connected and fixed to the mounting post (231) by fasteners passing through the connecting hole (81), so that the indicator light plate (80) is fixedly installed inside the component mounting groove (23).
3. The novel far-infrared floor heater according to claim 2, characterized in that, The component mounting slot (23) has symmetrical light-emitting slots (232) on both sides below. The light-emitting slots (232) are correspondingly arranged with the indicator light panel (80). The edge of the light-emitting slot (232) is recessed with a lens mounting slot (233). A light source lens (90) is embedded in the lens mounting slot (233). A light-emitting lamp bead (82) is provided in the middle of the surface of the indicator light panel (80) facing the light source lens (90).
4. The novel far-infrared floor heater according to claim 3, characterized in that, The heat insulation board (40) and the mica sheet (50) are fixedly attached to the mounting groove (21) by adhesive.
5. The novel far-infrared floor heater according to claim 4, characterized in that, The heating glass plate (60) is fixed to the glass mounting groove (22) by adhesive.
6. The novel far-infrared floor heater according to claim 5, characterized in that, The light source lens (90) is fixed to the lens mounting groove (233) by adhesive.