JP3085595U - Far-infrared radiation device - Google Patents

Abstract

(57) [Abstract] [Problem] To prevent the risk of a safety accident during handling by installing a fixed radiating device that does not need to move the undercarriage, and to use the radiating device simultaneously with the operation of the burner Provided is a far-infrared radiating device that prevents a decrease in efficiency due to the radiation and enables continuous use of the radiating device. The present invention relates to a far-infrared radiating device, and its technical configuration is that a radiating device main body composed of a plurality of frames connected to each other, and a burner and a chimney at both ends of a heating pipe supported by the frames. With a configuration including a heat generating portion to be connected and a heat radiating portion in which a large number of radiators in contact with the outside of the heat generating conduit are fixed by a frame, the radiating device can be used simultaneously with the operation of the burner, and It is characterized in that a decrease in efficiency is prevented and continuous use of the radiating device is enabled.

Description

[Detailed description of the invention]

[0001]

[Technical field to which the invention belongs]

 The present invention relates to a far-infrared ray radiating device, and particularly includes a frame, a heating section in which a burner and a chimney are connected to both ends of a heating pipe supported by the frame, and a contact with the outside of the heating pipe. In this configuration, a large number of radiators include a heat radiating portion fixed to a frame.

[0002]

[Prior art]

 A widely known far-infrared ray radiator is a masonry-type radiator that is laid in bricks on a movable chassis, and the movable chassis with the radiators assembled is heated to a constant temperature inside the kiln. Then, the heated radiator is carried into the room by the chassis moving on the rail, and the bather receives the heat released from the radiator.

However, in the radiating device as described above, a radiator in a high-temperature state is directly exposed to the outside, so that a fire or a safety accident of a handler frequently occurs when the vehicle moves, and cannot be used until the radiator is completely heated. In addition, heat loss occurs during transportation of the heated radiator, resulting in reduced efficiency, and the use of the radiator must be interrupted and heated again during cooling, making continuous use impossible. was there.

Further, when a large number of chassis with radiators are alternately used for the continuous use, continuous use is possible, but a large installation space is required. However, there were many problems such as a rise in unit price, the need to mount the radiator on the entire chassis, and an increase in cost.

[0005]

[Problems to be solved by the invention]

 The purpose of the present invention is to improve the conventional problems as described above, with the aim of providing a fixed radiating device that does not need to move the chassis to prevent the risk of a safety accident during handling. Another object of the present invention is to provide a far-infrared ray radiating device that enables the radiating device to be used simultaneously with the operation of the burner, prevents a decrease in efficiency due to the use, and enables continuous use of the radiating device.

[0006]

[Means for Solving the Problems]

 As a technical configuration for achieving the above object, the present invention provides a radiating device body, a heating section in which a burner and a chimney are connected to both ends of a heating pipe supported by a frame, and a contact with the outside of the heating pipe. And a heat radiating section in which a large number of radiators are fixed by a frame.

[0007]

[Embodiment of the invention]

 Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. FIG. 1 is a schematic diagram showing a far-infrared radiation device according to the present invention, FIG. 2 is a schematic diagram showing a far-infrared radiation device without a radiation plate according to the present invention, and FIG. 4 is a burner mounting portion of the radiation device according to the present invention. FIG. 3 is a cross-sectional view showing a main part of the present invention.

The radiating device main body 100 is interconnected such that a frame 110 having a support surface S formed therein has a constant shape, and a large number of through holes 120 are integrally formed in the frame 110.

The heat generating portion 200 provided inside the frame 110 has a heat generating means 220 and a chimney 230 integrally connected to both ends of a heat generating pipe 210 bent to form a fixed flow path, respectively. Supported by Further, the heat pipe 210 may be formed in a spiral coil shape.

Further, the heat generating means 220 includes a burner 220b connected to one end of the heat pipe 210 by a flange 220a, an arch girder 220c made of bioceramic material, and a heat exchange plate 220d. A large number of steps are formed integrally with the girder 220c, and the heat exchange plate 220d is formed such that the diameter on the inner diameter side increases to one side.

A plurality of heat radiating portions 300 are provided so as to be in contact with the outside of the heat pipe 210 so as to be stacked on the support surface S of the frame 110 laterally with respect to an open space 310 formed between the frames 110. The radiation plates 320 are assembled, and the radiators 330 are fixed to the through holes 120 formed in the frame 110 to fix the radiation plates 320 respectively.

The operation of the present invention having such a configuration will be described below. As shown in FIGS. 1 to 5, a plurality of frames 110 integrally forming a support surface S are interconnected to form a radiating device main body 100 having a hexahedron, a cylinder, and a polygonal column shape. You sit around it and get the heat that dissipates.

At this time, a heating pipe 210 made of stainless steel is provided inside the radiating apparatus main body 100 including the plurality of frames 110 connected to each other, and the heating pipe 210 is connected to the main body as shown in FIGS. 100 is provided so as to change the flow path while providing a large number of bent portions so as to radiate heat toward the outside of the radiating device main body 100 so as to conform to the outer shape of the radiating device main body 100. It generates heat when radiating heat to the outside.

A heat generating means 220 is connected to one end of the heat generating pipe 210, and a chimney 230 is connected to the other end, and heat transmitted from a burner 220 b of the heat generating means 220 passes through the heat generating pipe 210. The combustion gas of the burner 220 b is discharged through the chimney 230 while performing heat exchange.

The heat generating means 220 includes a burner 220 b, a girder 220 c and a heat exchange plate 220 d on one side thereof, and completely burns the burner 220 b. The burner 220 b is connected to one end of the heat pipe 210. It is possible to use burners that are connected by flanges and are suitable for each type of fuel regardless of the type of fuel.

The heat exchange plate 220d is made of a ceramic material, and is formed to have a diameter that expands in the direction of the flame on the inner diameter side, and the unburned fuel is completely vaporized and diffused by the burner 220b by accumulated heat. Thus, the fuel is burned inside the heating pipe 210.

Further, the girder 220c is formed of a ceramic material having a step, and has the same function and effect as the heat exchange plate.

Next, a large number of radiating plates 320 supported by the support surface S of the frame 110 are mounted and closely attached to the heat generating pipe 210 provided inside the frame 110, and the heat of the heat generating pipe 210 is converted into natural serpentine. The amphibole and germanium are transmitted to the radiation plate 320 made of a bioceramic material which is fired at a high temperature.

At this time, the radiating plate 320 and the radiating body 330 are made of a general bioceramic material that radiates far-infrared radiating substances, and emits far-infrared rays when heated by heat radiated from the heat generating pipe 210. Will be.

[0020]

[Effect of the invention]

 According to the far-infrared radiation device according to the present invention, a fixed radiation device that does not need to move the chassis is provided to prevent the risk of a safety accident during handling, and the radiation device can be used simultaneously with the operation of the burner. Prevention of reduced efficiency due to sudden use, continuous use of fixed radiating device, operation with minimum space and minimum number of people, indirect heating of radiator enables use regardless of fuel quality The unit price is prevented from rising, and the radiator is installed only on the outside of the heat pipe to prevent the installation cost from rising.

[Brief description of the drawings]

FIG. 1 is a schematic view illustrating a far-infrared radiation device according to the present invention.

FIG. 2 is a schematic view showing a far-infrared radiation device without a radiation plate according to the present invention.

3A and 3B are a side view and a plan view showing a radiating device according to the present invention.

FIG. 4 is a sectional view showing a main part of the radiating device according to the present invention, showing a burner mounting portion.

FIGS. 5A and 5B are a schematic view showing an external view of a radiating device and a heating pipe according to another embodiment of the present invention.

[Explanation of symbols]

100: radiation device main body, 110: frame, 120
... through-hole, 200 ... heating part, 210 ... heating pipe line, 2
20 heat generating means, 220a flange, 220b
Burner, 220c: girder, 220d: heat exchange plate, 230: chimney, 300: heat radiating section, 310: open space, 320: radiating plate, 330: radiator, S: support surface.

Claims (5)

[Utility model registration claims] 1. A frame 110 on which a support surface S is formed is interconnected so as to form a predetermined shape.
The radiating device main body 100 has a large number of through holes 120 formed integrally therewith, and the heat generating means 220 and the chimney 230 are integrally connected to a heating pipe 210 which is bent to form a fixed flow path inside the frame 110. Heating section 200, and support surface S of frame 110 outside heating pipe 210
And a plurality of radiating plates 320 are loaded so as to close the open space 310 between the frames 110, and the through holes 12
Heat radiating section 30 supported by radiator 330 fixed to zero
0. A far-infrared radiating device comprising: 2. The frame 1 on which the radiation plate 320 is stacked.
2. The far-infrared radiation device according to claim 1, wherein the heat-generating pipe 10 is formed in a hexagonal column shape, and a heating pipe 210 having a spiral coil shape is provided inside the hexagonal pole shape. 3. 3. The heat generating means 220 includes a heat generating pipe 21.
Burner 22 connected to one end of flange 0 by flange 220a
The far-infrared ray radiating device according to claim 1, wherein the far-infrared ray radiating device is composed of Ob, girder 220c and heat exchange plate 220d. 4. The far-infrared radiation according to claim 1, wherein the heat exchange plate 220d is formed of a bioceramic material, and has a flow path formed therein that expands along a gas flow. apparatus. 5. The far-infrared radiation device according to claim 1, wherein the girder 220c is formed of a bioceramic material having a step.