JPH0829081A - Heat storage element and heat storage device using the same - Google Patents

Abstract

PURPOSE:To provide the manufacturing method of a flexible sheet-like heat storage element and a heat storage device using the heat storage elements. CONSTITUTION:Two or more particles 2 having a latent heat storage property are put on a sheet 1 and a coating 3 is applied over the sheet 1, so that the particles having a latent heat storage property are sealed and fixed to prevent leakage when the particles are melted. Thereby, a flexible sheet-like heat storage element 5 can be easily produced and heat resistance during heat exchange with an external fluid can be lowered. Therefore, the sheet-like heat storage element which is flexible and has a low heat resistance during heat exchange with the external fluid can be easily manufactured.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a heat storage body and a heat storage apparatus using the same, and more particularly to a heat storage body using latent heat storage particles and having a wide range of applications, and a heat storage apparatus using the same.

[0002]

2. Description of the Related Art As a known example close to the present invention, Japanese Patent Laid-Open No.
Examples are described in JP-A No. 2-45849, JP-A No. 62-45680, JP-A No. 63-3085, and JP-A No. 62-148587. However, these are related to heat storage building materials, and do not disclose a method for obtaining a flexible sheet-shaped heat storage body which is an object of the present invention.

[0003]

When the latent heat storage material is used in the form of a flexible sheet, it is necessary to prevent the latent heat storage material from leaking to the outside because of the phase change of the heat storage material. The problem is to secure a heat transfer area and reduce the thermal resistance at the time of heat exchange between the heat storage body and the external fluid.

An object of the present invention is to solve the above problems and to provide a flexible sheet-shaped heat storage body prepared by a simple method and a heat storage device using the same.

[0005]

The above object can be achieved by a heat storage body in which a plurality of latent heat storage particles are placed on a sheet, and a paint is applied on the sheet to fix the particles to the sheet. That is, the present invention, a plurality of small latent heat storage particles are placed on the sheet, the particles are applied to the sheet using a paint, and the latent heat storage particles are sealed so as not to be exposed to the outside. Create a heat storage body and make it flexible. In addition, a structure in which particles are applied and hardened in a relatively thin shape on a thin sheet is arranged in a large number of fluids to increase the heat transfer area with the external fluid. Further, as a device for reducing the thermal resistance, the outer surface applied to the sheet is made uneven so as to promote the turbulence of the fluid.

[0006]

The coating adheres the latent heat storage particles to the sheet and at the same time separates and separates each small particle so as not to adhere to each other. Since the sheet and the paint film are flexible, they can be bent as a whole, and can be easily wrapped around a target clothes, a water pipe, or the like. Further, such a thin sheet-shaped heat storage body has a structure in which a large heat transfer area is provided in the fluid, which leads to a reduction in thermal resistance with the external fluid.

[0007]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Some embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a perspective view of an embodiment of a heat storage body 5 which is the basic configuration of the present invention, and FIG. 2 is a sectional view taken along line A ₁ -A ₂ . As shown in both figures, a plurality of latent heat storage particles 2
By placing (for example, paraffin particles) on a sheet 1 (paper, a heat-resistant ceramic sheet, a copper plate, an aluminum plate, etc.) and applying an aqueous and / or oily paint 3 thereon, each particle 2 is preferably formed. It is fixed on the seat 1 so as to be independent without touching. Since the particles 2 are individually fixed in this manner, when the particles 2 are melted, the particles 2 do not coalesce and collapse as a whole due to distortion.

FIG. 3 is a constitutional view of a heat storage body 5 of another embodiment. The particles 3 are coated on the sheet 1 with the coating material 3 and then dried, and the particles 2a are further covered with the coating material 3a. It is applied as described above. Also here 2
Although the coating is shown in steps, if the strength of the sheet 1 is sufficient, the heat storage capacity may be increased by increasing the heat storage capacity to three or more steps.

FIG. 4 is a block diagram of another embodiment. Particles 2 and 2a are applied and solidified on both sides of a sheet 1 by coating materials 3 and 3a. In this embodiment, the heat storage capacity can be increased without impairing the heat transfer area. In addition, since the particles 2 are coated and solidified on both sides of the sheet 1 with the coating material 3, thermal strain is less likely to be applied to the sheet 1 due to the heat cycle of heat storage and heat radiation.

FIG. 5 is a block diagram of another embodiment. Latent heat storage particles 2 and 2a are placed so as to be embedded on both sides of a sheet 1 having a corrugated or chevron cross section.
It is fixed with coating materials 3 and 3a so as to cover the gaps of 2a and the entire surface of the embedded particles 2. As a result, a large number of particles 2, 2a can be applied to the sheet 1 by one coating operation.
Since it can be applied on top, the capacity can be increased.

FIG. 6 is a block diagram of another embodiment.
The sheet 1 has a shape in which a large number of heat storage bodies 5 having latent heat storage particles 2 applied and fixed on both sides are stacked on the application surface to enable a large heat storage capacity.

FIG. 7 is a block diagram of another embodiment, and FIG. 8 shows a B ₁ -B ₂ sectional view thereof. This is one in which the latent heat storage particles 2 are embedded in the mesh of a wire mesh or mesh sheet (Tetron, nylon, polyester, etc.) having a mesh larger than the particle diameter so as to be solidified from both sides. According to this, the thickness of the sheet 1 is hidden even with the heat storage bodies 5 having the same heat storage amount, and the sheet 1 can be made thinner. Also, heat can be transferred from both sides of the sheet.
Further, by stacking on both sides of the sheet 1, a large capacity can be obtained.

FIG. 9 is a block diagram of another embodiment. Also,
Figure 10 shows the C ₁ -C ₂ cross-sectional view of the embodiment of FIG.
This is one in which latent heat storage particles 2 are arranged on the sheet 1 in several mountain ranges, and a paint is applied and fixed. This is mainly effective when there is a flow in the heat medium, the heat medium is made to flow in the direction perpendicular to the mountain range, the flow is disturbed to improve the heat transfer coefficient, and it aims to improve heat storage and heat dissipation. Is. This mountain range structure also helps increase the heat transfer area.

FIG. 11 is a block diagram of another embodiment. FIG. 12 is a sectional view taken along line D ₁ -D ₂ of FIG. 11. Sheet 1
The latent heat-storing particles 2 are irregularly placed on the top so as to form a large number of chevron shapes, and the coating material 3 is applied over the particles to solidify them. As a result, good heat conductivity is maintained regardless of how the sheet 1 is arranged with respect to the fluid flow.

FIG. 13 is a block diagram of another embodiment.
4 shows a sectional view taken along line E ₁ -E ₂ of the embodiment shown in FIG. This forms a mass of latent heat storage particles 2 on a sheet 1 which is long in one direction at regular intervals, and coats these with a paint 3
It is hardened by. In this example, the latent heat storage particles 2 are compared with the place where the paint 3 is fixed on the sheet,
There is only the seat 1, so it gives a great flexibility,
The sheet 1 is subjected to a large deformation in the longitudinal direction. Also,
Space 1a corresponding only to sheet 1 without particles 2
Due to the existence of the above, when the fluid is used by flowing around the sheet 1, the flow can be disturbed to enhance the heat transfer property.

FIG. 15 is a block diagram of a modification of the embodiment shown in FIG. Sheet 1 with a corrugated cross section in one direction
The latent heat storage particles 2 are coated on both surfaces of the above with the paint 3 so that the waveform is not damaged. By arranging the sheet 1 in such a manner that the waveform period is shifted by a half period, it becomes possible to form the space portion 1a capable of ensuring the flow of the heat medium.

FIG. 16 is a block diagram of an application example using the heat storage body 5. This is a water pipe that may freeze at night in winter 4
The heat storage body 5 using the latent heat storage particles 2 is wound around the outer surface of the heat storage body 5, and the outer side thereof is covered with the heat insulating material 6. The heat storage body 5 receives heat from the outside air in the daytime or heat from water flowing in the water pipe 4 to naturally store heat, and also uses a heater (cord heater, cord heater, etc.) on the surface of the heat storage body 5. A sheet-shaped heater, etc.) may be wound to store heat electrically.

Further, a heat pipe (heat transport device in which a vaporizable liquid is sealed in a hermetically sealed container) 26 is provided between the heat storage body 5 and the outside of the heat insulating material 6 so that the heat input portion is outside the heat insulating material 6. You may provide so that a heat output part may be connected with the heat storage body 5, and may store heat.
In this case, if the heat of the outside air in the daytime or the solar heat is stored in the heat storage body 5 through the heat pipe 26 provided with the heat collecting plate 30, the heat storage body 5 starts radiating heat as the outside temperature at night decreases, thereby preventing freezing in the tube. This heat pipe 26 is effective as a thermosiphon type unidirectional heat pipe in which a heat medium is only enclosed in the pipe, and when the evaporating part is located below the condensing part (in FIG. 16, the evaporating part is located on the heat collecting plate 30 side). , The heat accumulated at night does not escape to the outside.

FIG. 17 is a block diagram of another application example using the heat storage body 5. This is one in which the heat storage body 5 is housed inside the winter clothes 7. As for how to use the winter clothes 7, for example, the heat storage body 5 is worn so that the heat storage body 5 faces outward in the daytime to store solar heat, and after sunset, the heat storage body 5 is turned upside down to be used for heat retention. In addition, if a simple heating element such as a ribbon heater that can draw electricity from a household outlet together with the heat storage element 5 is stored inside the winter clothes 7, heat is stored in the heat storage element 5 by using the heating element before going out. It is also possible to use it to keep warm while you are out. In addition, the heat storage body 5 is detachable from the winter clothes 7, and only the heat storage body 5 is taken out and placed in a heat storage box (not shown) to store heat by using heat from exhaust heat or electricity, and then put on the winter clothes 7. You may put and use it.

FIG. 18 is a block diagram of another application example using the heat storage body 5. This is to use a belt-shaped heat storage body 5 or a large number of divided heat storage bodies 5 fixed to a belt 8 in a loop shape between a heat supply section 10 and a heat demanding section 9 for use in heat transport. . The belt 8 moves from the heat supply unit 10 to the heat demanding unit 9 by a motor or the like, but by controlling the driving speed of the belt 8, the heat radiation amount to the heat demanding unit 9 can be controlled. For example, exhaust heat from the furnace body may be used as the heat supply unit 10, and air and a fan may be used as the heat demand unit 9 for heating.

FIG. 19 shows a modification of the application shown in FIG. This is a belt-shaped heat storage body 5a, 5b, 5c, which uses latent heat storage particles 2 having different melting points.
5d is arranged in parallel with 5a, 5b, 5c, and 5d from the left in the descending order of melting point on the heat demand portion 9 side. Since the melting points of the latent heat storage particles 2 used for the respective heat storage bodies 5 are different, a temperature gradient can be created in the heat demand part 9. For this reason, for example, when air is flowed in the heat demanding part 9 to use the stored heat for heating or the like, if heat is passed from the low temperature heat storage body 5d side to the high temperature heat storage body 5a side, the heat exchange efficiency becomes remarkably good. .

FIG. 20 shows an application example using the heat storage body 5 shown in FIG. This is a structure in which a heat storage body 5 is arranged in a reciprocating flow type heat exchanger formed as a tank 11 so that a passage of a heat medium is not lost. According to this, since the heat exchanger has a high heat radiation rate and a small pressure loss around the heat medium 5, it can be used particularly as a heat exchanger for a Stirling cycle.

FIG. 21 shows another application example using the heat storage body 5. This is a shield for each of the blinds for windows in a normal building 1
The heat storage body 5 is attached to one side of No. 2. In the daytime, the heat storage body 5 is directed to the outside of the building to store solar heat, and after sunset, the surface on which the heat storage body 5 is attached is directed to the inside of the building to radiate heat to the inside of the building to keep it warm. It is used for heating.

FIG. 22 shows another application example using the heat storage body 5. This is configured such that the exhaust duct 14 and the air supply duct 13 of the duct air conditioning system are disposed so as to face each other, and the heat storage body 5 is provided on the boundary surface of the wall surface. Exhaust heat of the air flowing through the exhaust duct 14 can be stored in the heat storage body 5, and this heat can be radiated to the side of the air flowing through the air supply duct 13 that is in contact with the exhaust duct 14, and the air can be exhausted from the air supply duct 13 side. It can also be used for heat shielding to the duct 14 side. In the figure, reference numeral 16 is an outlet, 17 is a blower, 18 is a central air conditioner, 42 is a wall, and 43 is a floor. In addition, as shown in FIG. 23, the exhaust duct 14 has a structure in which an air supply duct 13 having an outer side wrapped with a heat storage body 5 is passed through, so that exhaust heat from the exhaust duct 14 side is sent to the air supply duct. It can be used more effectively as a heat shield so as not to move to 13.

FIG. 24 shows another application example using the heat storage body 5. This is the exhaust duct 14 and floor 4 of the duct air conditioning system.
The heat storage body 5 is provided between the heat storage body 3 and the wall 42.
Exhaust heat from the exhaust duct 14 is stored in the heat storage body 5 during exhaust, and this heat is radiated from the floor 43 and the wall 42 and used for heating. It can also be used as a heat shield for floors and walls.

FIG. 25 shows an application example of the heat storage type heat exchanger 15 using the heat storage body 5. In this duct air conditioning system, the heat storage heat exchanger 15 is connected between the passage of the exhaust duct 14 and the passage of the air supply duct 13. Thereby, the exhaust heat from the exhaust duct 14 is stored in the heat storage heat exchanger 15, the flow path is then switched, and the heat from the blower 17 is radiated to the heat storage heat exchanger 15 to radiate the heat, thereby effectively utilizing the waste heat. be able to.

That is, when the exhaust heat is stored in the heat storage type heat exchanger 15, as shown in FIG. 26, the three-way valves 21a, 21
Exhaust duct 1 by switching b, 21c, 21d
The air from 4 passes through the heat storage heat exchanger 15 to store heat. At this time, the air from the blower 17 is sent to the air supply duct 13 through the air supply bypass 19. Next, when the heat stored in the heat storage type heat exchanger 15 is taken into the blower air, as shown in FIG. 27, the three-way valves 21a, 21b, 21
By switching c and 21d, the exhaust duct 14
From the air passes through the exhaust bypass 20 and the air conditioner 1
8, the air from the blower 17 is sent to the air supply duct 13 through the heat storage heat exchanger 15, so that the exhaust heat from the exhaust duct 14 can be effectively used.

Further, in the example shown in FIG. 25, the heat storage heat exchanger is a single unit, but if a plurality of heat exchangers are combined in parallel and sequentially switched, the exhaust heat from the exhaust duct is apparently continuous. The heat can be stored in the air and can be continuously taken into the air supply, and the exhaust heat can be used more effectively. In this example, since the medium flow is a reciprocating flow type, the reciprocating flow type heat exchanger shown in FIG. 20 can also be applied.

FIG. 28 shows an example of a method of fixing the heat storage body 5 to the heat storage type heat exchange section. Usually, when a plurality of heat storage bodies 5 are used in combination, a space for passing a heat medium is required between the heat storage bodies 5 at least. In order to secure this gap, in this example, first, frame-shaped fixtures 39 and 39a adapted to the width of the heat exchanger are attached to the heat storage body 5, and the rod 4 is provided between the fixtures 39.
The medium passage is secured by using 0 and placing them apart. In order to reduce the pressure loss when the fluid flows, the fixture 39a, which is provided in the fixture 39 in the direction perpendicular to the flow of the heat medium, should be thin enough to have no problem in strength, or may be omitted in some cases. You may. Further, the rod 40 may be of a stepped shaft type as shown in FIG. 29, or may be provided with a spacer so as to have a desired gap between the adjacent fixtures 39. It is also possible to use a screw for the stepped portion. Also, this fixture 3
By changing the length of 9, it is possible to easily change the heat storage capacity.

FIG. 30 shows another application example using the heat storage body 5. In the copying machine 22, the heat generated from the control electronic component in the control unit 27 can be stored in the heat storage body 5 provided around the fixing device 25 by using the heat pipe 26. Is. As a result, the heat emitted from the fixing device 25 is shielded during startup, so that the power consumption of the halogen heating element 25a can be reduced. Further, the preheating time in which the fixing device 25 is warmed by the halogen heating element 25a at the time of start-up can be shortened by radiating the heat stored or by shielding the heat. In the figure, reference numeral 23 is a photosensitive drum, 24 is a recording paper, 31 is a corona charger, 32 is an exposure device, 33 is a developing device, 34 is a transfer device,
Reference numeral 35 is a static eliminator, and 36 is a cleaner.

FIG. 31 is a detailed view of an example of the joint between the heat pipe 26 and the heat storage body 5. In this figure, the heat pipe 26 and the heat storage sheet 5 are thermally coupled to each other via a heat dissipation plate 41. In order to quickly transfer the heat from the heat pipe 26 to the heat storage body 5, the heat radiation plate 41 is preferably made of copper and is connected to the heat pipe 26 by brazing.

FIG. 32 shows another application example using the heat storage body 5. This is the control unit 2 in the copying machine 22 during normal operation.
The heat generated from the control electronic components in 7 is stored in a heat storage tank 28 filled with a plurality of heat storage bodies 5 having a high heat storage / radiation rate using a heat pipe 26, and is stored when the copying machine 22 is started up. It is configured such that the lubricating oil or the like of each drive unit can be warmed by using heat so that it can be moved at high speed. That is, the reversible fan 2 is used so that the heat generated from the control unit 27 is stored in the heat storage tank 28 by using the heat pipe 26 during the normal operation.
9 is used to control the heat storage amount. At the time of start-up, the reversible fan 29 is reversed, and the outside air that has exchanged heat with the heat storage tank 28 is introduced into the copying machine 22 to warm the lubricating oil and the like of each drive unit. As a result, the start-up time can be shortened and print errors at the beginning of operation can be reduced.

FIGS. 33 and 34 show an example of joining the heat pipe 26 and the heat storage body 5 in the heat storage tank 28. FIG.
3 is a case where the heat pipe 26 has a structure that penetrates perpendicularly to the surface of the heat storage body 5. This is good when the amount of heat storage is large, and it is effective if one surface of the heat storage body 5 is a copper or aluminum plate. FIG. 34 shows a case where the heat pipe 26 is arranged in parallel with the surface of the heat storage body 5. When the heat storage body 5 has a corrugated shape as shown in the drawing, it is easy to contact and fix it. By increasing the contact area between the heat storage body 5 and the heat pipe 26, the heat storage heat dissipation rate is improved. The heat storage body 5 used here may be the one shown in FIG.

FIG. 35 shows another application example in which the heat storage body 5 is used. In this example, the television 37 having the cathode ray tube 38 is taken as an example. However, a heat generating portion such as a motor, a power transformer, a cathode ray tube, and a heat-sensitive electronic component such as an LSI in the control portion 27 are combined in the same device. In contrast, the heat storage body 5 is used as a heat shield plate or a heat shield box in order to protect these electronic components thermally. Further, in a device with a large amount of heat radiation, by combining with the heat pipe 26, it is possible to radiate a part of the heat that cannot be shielded to the outside.

In these examples, paraffin (abbreviation of paraffin hydrocarbon) is used as the material for the latent heat storage particles.
Particles are used. In the case of paraffin, there are a straight-chain type and a branch-type carbon array, and generally, in the straight-chain type, the melting point becomes higher as the number of carbon (C) increases. For example, carbon number C =
14 has a melting point Tm = 5.9 ° C. and C = 20 has a Tm = 36.
Tm = 65.8 ° C at 8 ° C and C = 30. In addition, the melting point will change further when it becomes a branch type.

In these examples, paraffin particles having a suitable melting point are used as needed, but the latent heat storage particles in the present invention are not limited to paraffin particles. For example, high density polyethylene (Tm: 125 ° C), napletan (Tm: 80.3 ° C), polyethylene glycol # 6
000 (Tm: 56 ° C), calcium chloride hexahydrate (T
m: 28 ° C.), sodium thiosulfate pentahydrate (Tm: 48
° C), magnesium chloride hexahydrate (Tm: 117 ° C), aluminum chloride / potassium chloride / lithium chloride eutectic salt (Tm: 8)
4.5 ° C), aluminum chloride / potassium chloride / sodium chloride eutectic salt (Tm: 93 ° C), aluminum chloride / sodium chloride eutectic salt (Tm: 93 ° C), or ammonium alum (Tm: 94 ° C), etc. The particles can be used properly according to the purpose. It is also possible to use particles made of these materials in an appropriate combination.

[0037]

As described above, according to the present invention, the latent heat storage particles can be placed on the surface of the sheet, and the particles can be fixed by coating each particle with a paint, which is flexible. The heat storage body can be easily made, and therefore, it becomes easy to wind the heat storage body around the target object. Further, when it is used by being provided in a fluid, a large heat transfer area can be secured and the thermal resistance with the fluid can be reduced.

[Brief description of drawings]

FIG. 1 is a perspective view showing a basic configuration of an embodiment of the present invention.

FIG. _{2 is a} sectional view taken along line A ₁ -A _{2 of} FIG.

FIG. 3 is a configuration diagram showing another embodiment of the present invention.

FIG. 4 is a configuration diagram showing another embodiment of the present invention.

FIG. 5 is a configuration diagram showing another embodiment of the present invention.

FIG. 6 is a configuration diagram showing another embodiment of the present invention.

FIG. 7 is a block diagram showing another embodiment of the present invention.

8 is a sectional view taken along line B ₁ -B ₂ of FIG. 7.

FIG. 9 is a configuration diagram showing another embodiment of the present invention.

10 is a sectional view taken along line C ₁ -C _{2 of} FIG.

FIG. 11 is a configuration diagram showing another embodiment of the present invention.

12 is a sectional view taken along line D ₁ -D _{2 of} FIG.

FIG. 13 is a configuration diagram showing another embodiment of the present invention.

14 is a sectional view taken along line E ₁ -E _{2 of} FIG.

FIG. 15 is a configuration diagram showing another embodiment of the present invention.

FIG. 16 is a configuration diagram showing an application example of the present invention.

FIG. 17 is a configuration diagram showing another application example of the present invention.

FIG. 18 is a configuration diagram showing another application example of the present invention.

FIG. 19 is a configuration diagram showing another application example of the present invention.

FIG. 20 is a configuration diagram showing another application example of the present invention.

FIG. 21 is a configuration diagram showing another application example of the present invention.

FIG. 22 is a configuration diagram showing another application example of the present invention.

FIG. 23 is a partial view showing a modification example of FIG. 22.

FIG. 24 is a configuration diagram showing another application example of the present invention.

FIG. 25 is a configuration diagram showing another application example of the present invention.

FIG. 26 is a partial view showing the operation of FIG. 25.

FIG. 27 is a partial view showing the operation of FIG. 25.

28 is a partial explanatory view of FIG. 25.

FIG. 29 is a partial explanatory diagram of FIG. 28.

FIG. 30 is a configuration diagram showing another application example of the present invention.

31 is a partial explanatory diagram of the application example shown in FIG. 30.

FIG. 32 is a configuration diagram showing another application example of the present invention.

FIG. 33 is a partial explanatory diagram of the application example shown in FIG. 32.

FIG. 34 is a partial explanatory diagram of another example of the application example shown in FIG. 32.

FIG. 35 is a configuration diagram showing another application example of the present invention.

[Explanation of symbols]

 1 Sheet 2 Particles 3 Paint 4 Water pipe 5 Heat storage body 6 Insulation material 7 Winter clothes 8 Belt 9 Heat demand part 10 Heat supply part 11 Tank 12 Shield plate 13 Air supply duct 14 Exhaust duct 15 Heat storage type heat exchanger 16 Air outlet 17 Blower 18 Central air conditioner 19 Air bypass 20 Exhaust bypass 21a, 21b, 21c, 21d Three-way valve 22 Copier 23 Photoreceptor drum 24 Recording paper 25 Fixer 25a Halogen heating element 26 Heat pipe 27 Controller 28 Heat storage tank 29 Reversible fan 30 Heat collecting plate 31 Corona charger 32 Exposure device 33 Developer 34 Transfer device 35 Static eliminator 36 Cleaner 37 Home appliances (TV) 38 CRT 39, 39a Fixture 40 Bar 41 Radiant plate 42 Wall 43 Floor

Claims (23)

[Claims] 1. A heat storage body comprising a plurality of latent heat storage particles placed on a sheet, and a coating material applied on the sheet to fix the particles to the sheet. 2. A heat storage body in which a plurality of latent heat storage particles are placed on a sheet so as to be superposed in a plurality of stages, and the particles are fixed to the sheet surface with a paint. 3. A heat storage body in which a plurality of latent heat storage particles are placed on a sheet so as to form a plurality of rows of mountain ranges, and the particles are coated on the sheet with a paint from above. 4. A plurality of latent heat storage particles are placed on a belt-shaped sheet so as to form a number of intermittent clumps, and a coating is applied from above to fix the particles to the sheet surface. Heat storage body. 5. A heat storage body comprising a plurality of latent heat storage particles, which are fixed on both sides of a sheet by coating and fixing with a paint. 6. A plurality of latent heat storage particles are packed between a plurality of sheets, and a gap between the sheets and the particles is filled with a paint to fix the particles between the sheets. Heat storage consisting of layers. 7. A heat storage material in which a plurality of latent heat storage particles are put in the mesh of a wire mesh or mesh sheet having a size larger than at least the particle size and the particles are fixed to the mesh by applying paint from both sides. . 8. A heat storage body in which a plurality of latent heat storage particles are placed on a sheet so as to form some irregular chevron shape, and the particles are coated and fixed to the sheet surface with a paint. 9. A heat storage body in which a plurality of latent heat storage particles are placed on a sheet having a corrugated cross section, and the particles are solidified with paint from above. 10. The corrugated sheet according to claim 9, wherein a plurality of the corrugated sheets, which are placed on both surfaces of the corrugated sheet and hardened with a paint, are combined by shifting the corrugated pitch of the corrugated sheet by one mountain. Heat storage body. 11. The material of the particles is paraffin, high density polyethylene, nafretane, polyethylene glycol # 6000, calcium chloride hexahydrate, sodium thiosulfate pentahydrate, magnesium chloride hexahydrate, aluminum chloride / potassium chloride / chloride. The heat storage body according to any one of claims 1 to 10, which is one of a lithium eutectic salt, an aluminum chloride / potassium chloride / sodium chloride eutectic salt, an aluminum chloride / sodium chloride eutectic salt, or ammonium alum. 12. A heat storage device in which the heat storage body according to claim 1 is provided on an outer surface of a water pipe. 13. A heat storage device in which the heat storage body according to claim 1 is provided in a part of clothes. 14. The heat storage body according to any one of claims 1 to 9 is fixed on a belt, which can be circulated by being arranged in a loop between a heat demanding part and a heat supplying part. Heat storage device. 15. The heat storage device according to claim 14, wherein a plurality of latent heat storage particles each having a different melting point are used to constitute the heat storage device. A heat storage device installed in the supply unit. 16. A heat exchanger type heat storage device in which the heat storage body according to claim 10 is disposed in a heat exchange tank. 17. A heat storage device in which the heat storage body according to claim 1 is provided on one side of a blind. 18. A heat storage device in which the heat storage body according to any one of claims 1 to 9 is provided with one surface on the exhaust duct side of the air conditioning system and the other surface on the air supply duct side. 19. A heat storage device in which the heat storage body according to any one of claims 1 to 9 is disposed on a floor or a wall of a building. 20. A heat exchange tank in which the heat storage body according to any one of claims 1 to 9 is arranged, the flow of which can be switched between an exhaust duct and an air supply duct of an air conditioning system. A heat storage device attached via individual valves. 21. The heat generated from an electronic component for controlling a copying machine is transported to a heat storage tank containing the heat storage body according to any one of claims 1 to 9 through a heat transfer means, and the heat storage is performed. A heat storage device that uses the heat stored in the tank to keep the fixing device warm. 22. The heat generated by a control electronic component of an electronic device is transported to a heat storage tank containing the heat storage body according to any one of claims 1 to 9 through a heat transporting means, and the heat storage means stores the heat. A heat storage device that heats drive parts by releasing the heat stored in the tank when the electronic device is started up. 23. The heat storage body according to claim 1, which is disposed near a control component in an electronic device,
A heat storage device that stores or shields heat emitted from the electronic component.