WO2006051609A1 - Air-conditioning building wall structure - Google Patents

Abstract

An air-conditioning building wall structure capable of solving a problem in a conventional structure wherein since an air-conditioning partition PC panel cannot be applied to renewal or post construction work due to its range of application being limited by the weight, comfortable living environment with a large radiation air-conditioning panel cannot be enjoyed at low cost. The air-conditioning building wall structure comprises a wall body (1) fixed to a building skeleton (B) to partition a space in a building. The wall body (1) is formed of a hollow body comprising two plates (2) and (2) disposed to face each other with a space. The plates (2) and (2) are at least partially formed with heat radiating parts (2a) formed of a heat conductive material, and a passage (3) for a heat medium to forcibly pour in a heat exchangeable manner to the heat radiating parts (2a) is formed in the internal space of the hollow body.

Description

 Specification

 Building wall structure for air conditioning

 The present invention relates to a building wall structure for air conditioning that radiates heat while forming a housing that defines a space in the building. In particular, the present invention secures a comfortable living environment with low cost and comfort. Therefore, it relates to building structures for air conditioning that can be widely applied to renewal, post-construction, small buildings, etc. Background art

Conventionally, an example of a radiant panel attached to a building wall for radiant cooling and heating is known as Patent Document 1 (Japanese Patent Laid-Open No. 11 1 3 2 4 1 85). This is because the heat radiation part is attached to the wall of the plaster board via a lath, and this heat radiation part is a molding hardener with a hot water pipe and a reinforcing material embedded in it. Panel cracking is prevented even when subjected to periodic thermal stress changes due to temperature cycling. However, since the above-mentioned heat radiation part requires a structure for heat radiation in addition to the structure of the wall body, the wall body has a large load from the heat radiation part along with the cost problem due to the complicated structure. Due to the load, it was practically difficult to make the entire surface of the wall a heat radiation part. In order to solve this problem, the present inventor previously proposed a partition panel described in Patent Document 2 (Japanese Patent Laid-Open No. 2 0 0 3 — 1 6 0 9 85). This partition panel is factory-produced as a PC panel that constitutes a building wall structure for cooling and heating that can radiate the entire surface, while maintaining its dimensional accuracy and self-supporting strength, while reducing costs through a simple structure. As a result, it is possible to enjoy a comfortable living environment at a low cost by radiant cooling and heating over the entire large wall panel. However, although the building wall structure with the above-mentioned partition panel can provide a comfortable living environment with low cost, a special handling means such as sato-maki vst is constructed to handle a large weight during the operation. It contains the problem that its application is limited to large-scale new buildings because it needs to be done on site o Disclosure of the invention

 The problem to be solved is that the construction of the building wall structure by the above-mentioned partition panel is limited due to the restriction of the construction method that requires heavy equipment installation, that is, it cannot be applied to renewal or post-construction. The point that it was not possible to make full use of the feature of being able to enjoy a comfortable living environment with a large radiant cooling and heating panel at low cost.

 In order to solve this problem, the invention according to claim 1 is composed of a wall body that is fixed to the building frame and defines a space inside the building, and the surface / dish δε. Of the wall body is controlled. In a building wall structure for cooling and heating that radiates cooling and heating, the wall is formed by a hollow body composed of two plates spaced apart from each other and at least part of the plate is heated. A heat radiating portion is formed by a conductive material, and a flow path for forcibly passing a heat medium through the heat radiating portion so as to exchange heat is formed in the internal space of the hollow body.

 The invention according to claim 2 comprises a wall body that is fixed to the building frame and that defines a space inside the building.

In the building wall structure for air conditioning that radiates heat by controlling the surface temperature, the wall is formed by a PC plate having a predetermined structural strength and thermal conductivity. In this PC board, a flow path for forcibly flowing through the heat medium is formed so that heat exchange is possible. It is characterized by that. The invention according to claim 3 is characterized in that, in the invention according to claim 1 or claim 2, a heat medium delivery section for forcibly delivering the heat medium is connected to the inlet of the flow path.

 The invention according to claim 4 is characterized in that, in the invention according to claim 1 or claim 2, an uneven shape for heat exchange is formed on at least a part of the heat radiation portion.

 The invention according to claim 5 is the invention according to claim 1 or 2, wherein the inner space of the wall body is

The space between the two plates is made of a heat insulating material.

 The invention according to claim 6 is the invention according to claim 1, wherein the inner space of the wall body is provided with a heat storage material that accumulates or discharges cold / heat received from the flow path by filling and forming. Features.

 The invention according to claim 7 is the invention according to claim 6, wherein the heat storage material is formed of a filler that fills the internal space with a predetermined structural strength, and the filler has a thermal conductivity that forms a flow path. It is characterized by burying the pipe material. The invention according to claim 8 is the invention according to claim 7, wherein the two plate members are provided with a spacer for positioning the two plates at a predetermined distance, and two spacers are provided at both ends of the spacer. It is characterized in that a detachable fitting part is interposed between the plate material.

 The invention according to claim 9 is the invention according to claim 7, characterized in that an opening for filling a filler is formed in at least one of the two plate members.

The invention according to claim 10 is the invention according to claim 1, wherein the wall body is formed with one or more through holes through which the heat medium in the flow path can be discharged to the heat radiating portion side through the plate material. It is characterized by that. The invention according to claim 11 is the invention according to claim 10, characterized in that the two plate members are formed by an integrally formed cage body made of a mesh material having a predetermined structural strength.

 The invention according to claim 12 is characterized in that, in the invention according to claim 10, the through holes are arranged at an equal density so that the through holes can be evenly discharged from the entire surface of at least one of the walls.

 The invention according to claim 13 is the invention according to claim 1 or claim 2, wherein an exterior material is attached to the outer surface of the heat radiation portion on one side of the wall body.

 The invention according to claim 14 is characterized in that, in the invention according to claim 1 or claim 2, a heat insulating material is attached to the outer surface of the heat radiation portion on one side of the wall body.

 The invention according to claim 15 is the invention according to claim 2, wherein a heat conductive filler is provided between the wall body and the building frame to fill the gap and form and connect it. Features. Brief Description of Drawings

FIG. 1 is a perspective view of an essential part of a building wall panel for air conditioning according to the building wall structure of the present invention (Configuration Example 1). Fig. 2 is an enlarged cross-sectional view of the building wall panel for air conditioning shown in Fig. 1. FIG. 3 is a perspective view of an essential part of a building wall panel for air conditioning according to the building wall structure of the present invention (Configuration Example 2). FIG. 4 is a cross-sectional perspective view (a) of a specific configuration example of the wall body of FIG. 3 and a cross-sectional view (b) of another configuration example. FIG. 5 is a perspective front view of a building wall panel for air conditioning according to the building wall structure of the present invention (Configuration Example 3). 6 is an enlarged cross-sectional view of a single configuration and a double configuration of the building wall panel for cooling and heating in FIG. FIG. 7 is a partially broken front view of a building wall panel for air conditioning according to the building wall structure of the present invention (Configuration Example 4). FIG. 8 is a cross-sectional view taken along lines AA and B-B in FIG. 7 and an enlarged cross-sectional view (ac) of the double configuration. Fig. 9 shows another configuration example of the building wall panel for air conditioning shown in Fig. 7. FIG. FIG. 10 is a cross-sectional view of a building wall panel for cooling and heating (Configuration Example 5) according to the building wall structure of the present invention. Fig. 11 is an enlarged cross-sectional view of the main part of the wall panel for the air conditioning building shown in Fig. 10. Fig. 12 is a cross-sectional view of an externally mounted PC panel incorporating adjustment connection means. BEST MODE FOR CARRYING OUT THE INVENTION

 The building wall panel for air conditioning that constitutes the building wall structure of the present invention has two modes: a hollow wall body and a PC board. Each is described below.

 (Configuration example 1)

FIG. 1 is a perspective view of a main part of a building wall panel for cooling and heating (configuration example 1) constituting the building wall structure of the present invention, and FIG. 2 is an enlarged sectional view thereof. A building wall panel 1 for air conditioning (hereinafter simply referred to as a “wall panel”) is a wall body that is fixed to a building housing (not shown) and defines a space inside the building. Formed by a hollow body made up of two plate members 2 and 2 of unit size width W that are spaced apart and opposed to each other. The plate members 2 and 2 are metal plates for heat dissipation, or at least a part of them. A heat radiating part 2 a is formed by a heat conductive material such as a metal plate, and the flow path 3 for forcibly passing a heat medium by gas is exchanged with the heat radiating part 2 a so as to exchange heat. Formed in the interior space. Wall 1 is formed by the height of each floor, or the height that reaches the interior material I of the floor and ceiling, and is placed side by side with the upper and lower ends or side edges fixed to building frame B. A partition wall body is formed. A heat medium supply port 4 and a discharge port 5 are formed in the flow path 3 of each wall body 1 as a unit. When the supply port 4 and the discharge port 5 are formed at the side end of the wall body 1, the flow path 3 of each wall body 1… connected in series is connected horizontally, and both side ends are connected to the entire supply port and It can be an outlet. In addition, supply port 4 is connected to the upper end, upper wall, etc. Can be formed. The supply port 4 is connected to the supply port 4 through a heat source unit 6 from a heat exchange unit or the like for heating or cooling air or a regulated gas whose oxygen partial pressure is adjusted if necessary. The heat medium is forced to flow through the duct 8, the discharge duct 9 is connected to the discharge port 5, and a discharge section 10 for suction suction exhaust is provided if necessary.

 The building wall panel 1 for cooling and heating having the above configuration is constituted by a hollow wall body, and the heat medium is forced to flow through the flow path 3 formed in the wall body 1, and the cooling / heating energy is transferred to the heat radiation section. 2 Since it is radiated to the room R via a, a comfortable air-conditioning environment can be formed with a simple configuration. Therefore, the building wall structure with the heating and cooling building wall panel 1 enables comfortable wall surface radiation cooling and heating to be performed at low cost, and the workability is ensured by the light weight of the hollow wall body. The construction mode can be selected according to need at the construction site, so it is not limited to new construction of large-scale buildings, but is widely applicable to renovation work and post-renovation work for partial repairs, including small-scale buildings. Can be used.

 (Configuration example 2)

 In the following, the same members as those described above are denoted by the same reference numerals, and the description thereof is omitted.

 The building wall panel for cooling / heating 11 shown in FIG. 3 is composed of two perforated plate materials 1 2 and 1 2 in the same manner as described above. In the perforated plate materials 1 2 and 12, one or more through-holes 5 a that can penetrate the plate material and discharge the heat medium in the flow path 3 into the room R are formed. As shown in the figure, the through hole 5 a is a large number of pores arranged at equal distances on the entire surface of the wall body 11, and the through hole 5 b with a large opening and the discharge port 5 of the wall body 11 are required. By combining or selecting more, it is possible to achieve rapid air-conditioning and various indoor ventilation controls by direct action of the heat medium.

As shown in the cross-sectional view of Fig. 4 (a), the concrete structure of the wall body 1 1 On the plate materials 1 2 and 12, heat conduction plates are fixed as backing materials 1 3 and 1 3, and through holes 5 a reaching the room R from the flow path 3 are formed. Insertion grooves 1 4 and 1 5 are formed at the upper and lower ends of the wall body 1 1, and the vertical members 1 6 and the baseboard 1 7 corresponding to each of them are fixed to the building frame B for fixing. The partition is formed by inserting the wall body 1 1 and fixing it to the building frame B. The perforated plate materials 12 and 12 can easily secure the self-standing strength as a partition by the backing materials 1 3 and 1 3. In addition, with respect to the single configuration with the single flow path 3 described above, this is divided into front and rear portions for each heat radiating section, and an example of a double configuration is shown in the wall 1 1 By providing a partition 18 made of heat insulating material in the center of the wall and dividing the flow path 3 into two, the rooms R 1 and R 2 on both sides can be controlled individually.

 (Configuration example 3)

 The building wall panel for heating and cooling shown in the perspective front view of FIG. 5 is formed by a mesh material so that it can stand on its own as shown in the enlarged cross-sectional views (a) and (b) of the single configuration and double configuration of FIG. It is composed of a frame 2 2 and perforated materials 2 3 and 2 3 mounted on both surfaces thereof. For the frame 22, an expanded metal or the like is formed into a wall with a predetermined thickness, and its upper and lower parts are fixed to the building frame B via fixing means 2 4 and 2 5 such as bolts. The perforated materials 2 3 and 2 3 on the surface are selected from a variety of interior materials including mainly breathable materials such as fabric and non-woven fabric, and are attached to the housing 2 2.

The building wall structure with the above-mentioned building wall panel 2 1 for heating and cooling uses a cage structure made of a mesh material for the hollow wall body, so that it is possible to secure a self-supporting strength and to apply a wide range of finishing materials with air permeability. It becomes possible. When the through-holes are evenly arranged in the hollow wall body, the uniform discharge air creates a horizontal layer circulation state across the room, and a comfortable living environment can be formed. this The horizontal layer circulation air can occupy airflow for each streamline, so a healthy and comfortable living environment can be formed at low cost, including medical use that requires individual clean airflow within the occupied space. .

 (Configuration example 4)

 The building wall panel 3 1 for cooling and heating shown in the perspective front view of FIG. 7 is an enlarged cross-sectional view, as shown in FIG. 8, with two plates 3 2, 3 2 facing each other with a gap therebetween, and these plates 3 2, 3 2, a pipe 3 3 disposed in the gap between the two and 3 2, and a filler 3 4 made of concrete or the like that expands the surrounding space within the gap. 1 3 5 and retaining material 3 6 etc. will be installed in the construction site so that it can be filled and molded.

 The two plate materials 3 2 and 3 2 are heat radiating plates that radiate cold / heat received from the filler 3 4 to the outside. A panel opening 3 7 for filling the interior space with the filler 3 4 is formed in the upper part. Pipe line 3 3 is a pipe material made of a heat-conductive cross-linked polyethylene material or the like that transfers the cold / hot heat of the heat medium to filler 3 4, and has a supply port 3 3 a and a discharge port 3 for forcing the heat medium to flow through. 3 b is provided at both ends. The supply port 3 3 a and the discharge port 3 3 b are connected to the supply / discharge pipe 3 8 at the panel opening 3 7 of the two plates 3 2, 3 2. Filler 3 4 is a filler such as concrete that has self-supporting strength as a partition wall, and uses a heat conduction material that transfers cold / hot heat between the pipe line 3 3 and the plate 3 2. To do.

 The spacer 35 is attached at both ends thereof to the inner surfaces of the two plates 3 2 and 3 2 so as to be separated and held at a predetermined distance. At both ends of the spacer 35, fitting portions 35 a and 35 a for detachably fitting and fixing between the two plate materials 3 2 and 3 2 are provided. The holding member 36 is formed of a mesh member such as a welded mesh, and is fixed to the spacer 35 and is then positioned and held by attaching a pipe line 3 3 with a pipe member.

The building wall panel 3 1 for heating and cooling with the above configuration is composed of suspended material 1 6 and baseboard 1 7 Built as a partition wall in an unfilled state after being attached to the building frame B, and filled with solidified material such as raw concrete from the panel opening 37 or with a fluid material that can be removed later By filling the filler, it is possible to easily form the thermal radiation partition wall without requiring special heavy machinery. Further, workability can be ensured by the fitting portions 35a and 35a. The partition wall by the building wall panel 3 1 for air conditioning is connected to the pipe 3 3 at the panel opening 3 7 with the supply / exhaust pipe 3 8, and the cooling / heating medium is forced through, so that the filler 3 4 Cold and hot heat is radiated from the two plates 3 2 and 3 2 to the room via In this case, a stable temperature environment can be obtained as the heat storage material by increasing the heat capacity of the filler 34.

 In addition, as shown in FIG. 8 (c), the building wall panel 31 for cooling and heating is provided with a partition part 39 that divides the interior into front and rear parts for each heat radiation part, and is formed by a heat insulating material. Therefore, individual air conditioning control can be performed on each side. Furthermore, as shown in Fig. 9, a large heat dissipation area can be secured by using plate material 3 2 a with an uneven surface on the panel surface, enabling efficient cooling and heating. Become.

 (Configuration example 5)

 The building wall panel 4 1 for cooling and heating that constitutes the building wall structure shown in the cross-sectional view of Fig. 10 is a pipe material for forcibly flowing through the heat medium, as shown in Fig. 11. Pre-cast concrete with internal pipe line 3 3 molded PC board 4 2 with heat insulation material 4 3 and exterior material 4 4 attached to one side as external insulation type outer wall panel pre-configured by factory production The outer wall of the building is constructed by attaching it to the outer periphery of building frame B.

More specifically, the building wall panel 4 1 for air conditioning is arranged in the vertical direction with structural rebars 4 5… to ensure the strength of the outer wall, and the end is a connecting part 4 5 a… The metal mold is formed by factory production. Building frame B On the side, the insertion wall 4 6… for mounting the building wall panel 4 1 for air conditioning is projected, and when building the outer wall, the building wall panel for cooling and heating 4 1 is transported to the closest position of this construction site. Then, the building wall panel 4 1 for cooling and heating is fitted on the outer periphery of the building frame B by lifting operation from outside the building. The space between the outer peripheral connecting part 4 5a of the building wall panel 4 1 for air conditioning and heating and the reinforcing bar 4 6 of the building frame B are welded and connected, and the gap is filled with heat conductive filler 4 such as mortar. 7 Fill and mold. On the outer peripheral surface of building frame B, heat insulating material 4 3 a and exterior material 4 4 a will be installed, except for frame extension C such as a veranda.

 The building wall structure with the above-mentioned building wall panel for heating and cooling 4 1 is configured as a PC panel with exterior, so that the panel strength as the outer wall of the structure can be easily secured, and from the outside Since there is a great degree of freedom in construction through the application of outside construction, it is possible to apply a wide range of applications, including post-renovation and renovation, and small buildings.

 Also, during cooling and heating, cold and hot water is forced to flow through pipe 33 as a heat medium to radiate cold and hot air from the outer wall to the room, minimizing the influence of outdoor weather conditions. In addition, the problem of condensation due to air retention on the back side of the furniture when the furniture is arranged along the outer wall can be solved. In particular, the building wall panel 41 for cooling and heating and the building frame B are thermally integrated with the filler 47 to block the cooling bridge phenomenon generated by the frame extension C of the veranda. Therefore, it is possible to prevent the cold bridge problem that could not be solved even by the so-called outer heat insulation method, and achieve both the additional structure by the housing extension C and the indoor living environment.

In this way, by configuring the building wall panel for cooling and heating 4 1 to be applied to the outer wall, it can be achieved by cooling and heating by the partition panel without receiving application restrictions due to the weight of the partition PC panel etc. Difficult and uniform indoor environment can be easily secured. In addition, as shown in Fig. 12 as an example of a building wall structure in which an adjustment connecting means is incorporated into an exterior PC panel, the building wall panel 5 "I for air conditioning is connected to the building frame B by the adjusting connecting means B After positioning with respect to the outer wall, the outer wall can be built by filling and molding so as to be filled with the filler 47.

 Specifically, the level adjustment is performed by fitting the building wall panel 51 for cooling / heating to the building frame B by means of lifting on the ground side and then screwing it to the lower end of the PC board 4 2 via the insert bracket 5 3. The bolt 5 2 is received by the plate 5 4 on the building frame B side, the level is adjusted by the bolt 52, and the building plate B side is screwed by the bolt 5 5 screwed onto the upper part of the PC board 42. Fix the upper part of the panel to the angle piece 5 6. Insulate foamed urethane 4 3 b into the gap, waterproof with sealing material 4 4 b, and include adjustment connection means such as bolts 5 2, 5 5, angle pieces 5 6, etc. By filling the gap with the filler 47, the outer wall of the PC panel can be formed.

 It should be noted that by removing the heat insulating material 4 3 of the building wall panels 4 1 and 5 1 for air conditioning, air conditioning including the outer space becomes possible, and a so-called double wall is provided with a partition made of heat insulating material in the middle. By adopting the configuration, the inside and outside of the wall panel as the outer wall can be individually controlled for cooling and heating. As for these air-conditioning effects, it is clear that the same effect is also obtained in the case of a building wall structure in which the building wall panel for cooling and heating by the hollow wall body made of the two plates described above is applied to the outer wall. Each explanation is omitted. Industrial applicability

In the case where a building wall structure for cooling and heating is constituted by a hollow wall body, the heat transfer medium is forced through the flow path formed in the wall body, and the cooling and heating energy is Since it is radiated indoors through the heat radiating section, it is possible to form a comfortable air conditioning environment with a simple configuration. Therefore, low-cost and comfortable wall surface radiant cooling and heating are possible, and the hollow wall body ensures lightweightness and workability, so a variety of construction modes including filling construction at the shop floor are selected. Therefore, it is not limited to new construction of large-scale buildings, but can be widely applied to renovation and partial renovation by post-construction including small-scale buildings (claim 1) .

 If the thermal radiation Pc plate is placed on the outer periphery of the building, the panel strength as a structural outer wall can be easily secured.

 --In addition to ensuring the degree of freedom, cold heat from the heat medium forced through the shell is radiated through the heat radiation part of the outer wall surface, so that the influence of external conditions can be minimized. Therefore, the degree of freedom in construction allows for wide-ranging applications such as renovations and partial renovations and small buildings, and the influence of external conditions affected by the external walls. The heat radiation wall body with a simple structure can be kept small, ensuring a uniform indoor environment that cannot be solved by ordinary air conditioning, such as cold condensation due to air retention on the inner surface of the outer wall in contact with furniture. By eliminating this, it becomes possible to form a comfortable air-conditioning environment (claim 2).

In the case where the heat medium delivery section is attached, the heat medium is forcibly delivered to the flow path suitable for forced through flow in addition to the effect of the invention described in claim 1 or claim 2, and the cold / hot heat is transmitted through this heat medium. Is efficiently radiated from the hollow wall body, and an effective cooling and heating action can be ensured (claim 3). When the heat radiation portion of the hollow wall has an uneven shape, in addition to the effect of the invention according to claim 1 or claim 2, it is possible to efficiently cool and heat by increasing the heat transfer area (claim 4). When the hollow wall body is partitioned by a heat insulating partition, in addition to the effect of the invention described in claim 1 or claim 2, it is selected and cooled on one side as needed. (Claim 5).

 When the heat storage material is provided in the hollow wall body, in addition to the effect of the invention of claim 1, the heat storage material supplies and discharges heat according to the temperature difference from the environment. However, it is possible to maintain a stable living environment by suppressing the temperature change of the environment (claim 6). When the heat storage material is filled and formed, in addition to the effect of the invention described in claim 6, heat storage properties can be secured together with the strength (claim 7). In the case where the spacer having the fitting structure is provided, in addition to the effect of the invention described in claim 7, it is possible to improve the workability at the time of on-site filling (claim 8). When the filling port is formed, in addition to the effect of the invention described in claim 7, it is possible to improve the workability and to use it for the arrangement of the supply / exhaust portion of the heat medium (claim 9).

 When the through-hole is formed in the hollow wall body, in addition to the effect of the invention described in claim 1, since the heat medium is directly discharged, it functions as a heat radiant cooling and heating system having immediate effect (claim) Ten ) . When the hollow wall body has a cage structure made of a mesh material, in addition to the effect of the invention described in claim 10, it is possible to select and apply from a wide range of finishing materials having air permeability as well as ensuring self-supporting strength (claims). 1 1). When the through holes are evenly arranged in the hollow wall body, in addition to the effect of the invention according to claim 10, a comfortable living environment can be formed by a laminar flow space (claim 12).

 When the exterior material is attached, in addition to the effect of the invention described in claim 1 or claim 2, cooling and heating outside the half-door can be performed (claim 13). When the heat insulating material is attached, in addition to the effect of the invention described in claim 1 or claim 2, an external heat insulating environment can be secured (claim 14).

When the space between the wall and the frame connecting portion is filled with a heat conductive material, in addition to the effect of the invention described in claim 2, it is possible to prevent a cold bridge phenomenon due to the building frame extending portion. Therefore, it can be solved by the external insulation method due to the effect of preventing cold bridges. A uniform indoor environment can be ensured by minimizing the influence of external conditions due to the inferior building frame extension (claim 15).

Claims

The scope of the claims 1. In a building wall structure for air conditioning that radiates cold / hot heat by controlling the surface temperature of the wall, which is fixed to the building frame and that defines a space inside the building. The wall body is formed by a hollow body made of two plate members that are spaced apart from each other, and at least a part of the plate material forms a heat radiating portion using a heat conductive material, and the heat radiating portion is A building wall structure for cooling and heating, characterized in that a flow path for forcibly flowing through the heat medium is formed in the internal space of the hollow body.  2. It consists of a wall that is fixed to the building and defines a space inside the building. In the building wall structure for cooling and heating that radiates heat by controlling the degree of heat, the wall is formed by a PC plate having a predetermined structural strength and thermal conductivity. A building for cooling and heating characterized by forming a flow path for forced through of the heat medium to make the front and back walls a heat radiating part and arranging the wall on the outside surface of the building Wall structure.  3. The building wall structure for cooling and heating according to claim 1 or 2, wherein a heat medium sending part forcibly sending a heat medium is connected to the inlet of the flow path.  4. The building wall structure for cooling and heating according to claim 1 or 2, wherein at least part of the heat radiating portion is provided with an uneven shape for heat exchange. 5. The building wall structure for cooling and heating according to claim 1 or 2, wherein the inside of the wall body is configured by partitioning the front and rear heat radiation portions with a heat insulating material. 6. The cooling body according to claim 1, wherein a heat storage material for accumulating or discharging cold heat received from the flow path is provided inside the wall body by filling formation. Building wall structure for heating.  7. The heat storage material is formed of a filler that fills the internal space with a predetermined structural strength, and a heat conductive pipe material that forms a flow path is embedded in the filler. The building wall structure for air conditioning according to claim 6.  8. The two plate members are provided with spacers for positioning the two plates at a predetermined distance, and at both ends of the spacer, fitting parts that are detachable between the two plate members are provided. The building wall structure for cooling and heating according to claim 5, wherein a wall is provided. 9. The building wall structure for cooling and heating according to claim 5, wherein an opening for filling a filler is formed in at least one of the two plates.  10. The building for cooling and heating according to claim 1, wherein the wall body is formed with one or more through-holes that can penetrate the plate material and discharge the heat medium in the flow path to the heat radiating portion side. Wall structure.  11. The building wall structure for cooling and heating according to claim 10, wherein the two plate members are formed by an integrally molded car body made of a mesh material having a predetermined structural strength.  12. The building wall structure for cooling and heating according to claim 10, wherein the through holes are arranged at an equal density so that the through holes can be uniformly discharged from the entire surface of at least one of the walls.  3. The building wall structure for cooling and heating according to claim 1 or 2, wherein an exterior material is attached to an outer surface of the heat radiating portion on one side of the wall body.  14. The building wall structure for cooling and heating according to claim 1 or 2, wherein a heat insulating material is attached to an outer surface of the heat radiating portion on one side of the wall body.  15. The building wall structure for cooling and heating according to claim 2, wherein a heat conductive filler is provided between the wall body and the building frame so as to fill the gap and form and connect it. .