JP2011185454A - Radiation panel device and radiation panel material - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a radiation panel device and a radiation panel material capable of suppressing increase of a thickness of the entire device, and being function as a partitioning wall for defining a space to ensure privacy. <P>SOLUTION: The radiation panel device 1A includes a radiating section 20A configured by arranging long radiation panel materials 7 in a line at prescribed intervals. In the radiating section 20A, a clearance gap between the radiation panel materials 7 can be controlled from a visual line E along the direction D4 vertical to the arrangement direction D3 of the radiation panel materials 7. The radiating section 20A is formed only by arranging the radiation panel materials 7 in a line in this device 1A, which is effective for miniaturizing the device to be compact in comparison with a conventional device in which the radiation panel materials 2 are arranged in two lines. Further as the radiating section 20A is configured so that the clearance gap S between the radiation panel materials 7 can be controlled from a visual line E viewed edge-on, the privacy of the space defined by the radiating section 20A can be ensured. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to a radiation panel device used for radiation cooling and radiation heating, and a radiation panel material used for the radiation panel device.

Conventionally, a plurality of radiant panel members are provided, and each radiant panel member is provided with radiation ability by circulating a heat medium composed of a fluid such as water between a separately installed heat source and the radiant panel member. There is known a radiation panel device capable of performing air conditioning such as a living room by radiation heating or radiation cooling.
For example, in Patent Document 1, a heat medium flow pipe for circulating a heat medium is provided inside a flat and long radiant panel material, and the heat medium is circulated through the heat medium flow pipe. A radiation panel device capable of radiation by a panel material is disclosed. In this radiant panel device, radiant panel members are arranged in a horizontal row to form a radiant portion, and the radiant portion can be made to function as a partition wall.
However, in the radiant panel device of Patent Document 1, since a gap is generated between the radiant panel materials forming the radiant portion, the radiant panel material is used as a simple partitioning / cooling / heating device around a water such as a wash-dressing room. There was a problem that it was not preferable in terms of privacy because the other side could be seen through.
In order to solve this problem, Patent Document 2 discloses a configuration in which radiant panel materials are alternately arranged in two rows.

JP 2006-153431 A JP 2008-121907 A

  However, while the radiation panel device described in Patent Document 2 can block the line of sight to some extent, the thickness of the entire device is remarkably increased because the radiation panel materials are arranged in two rows. A new problem arises in that it cannot be installed as a partition wall in a narrow space such as a dressing room.

  Therefore, the present invention has been made to solve such a problem, and suppresses an increase in the thickness of the entire apparatus and functions as a partition wall capable of partitioning a space where privacy can be ensured. An object of the present invention is to provide a radiation panel device and a radiation panel material that can be used.

  The present invention relates to a radiant panel device including a radiating portion formed by arranging long radiating panel members in a line at a predetermined interval, and the radiating portion includes a gap between the radiating panel materials, It is characterized in that it can be regulated from a line of sight along a direction perpendicular to the arrangement direction.

  According to the present invention, since the radiation portion is formed only by arranging the radiation panel materials in a row, for example, the thickness of the entire device as compared with the conventional radiation panel device in which the radiation panel materials are arranged in two rows in a staggered manner. This can be remarkably suppressed. Further, since the radiation portion is formed so that the gap between the radiation panel materials can be regulated from a line of sight along a direction perpendicular to the arrangement direction of the radiation panel materials, the radiation portions are arranged in the arrangement of the radiation panel materials. When viewed from a direction perpendicular to the direction, the exchange of the line of sight between the near side of the radiating portion and the opposite side thereof is restricted, thereby ensuring the privacy of the space defined by the radiating portion.

  Furthermore, it is preferable that the radiation portion includes a plurality of radiation panel materials and a blindfold material installed in a gap between the radiation panel materials provided adjacent to each other. Since a blindfold is installed between the radiant panel materials, it is suitable for blocking the line of sight at the radiant part, and sound and odor can be suppressed as much as possible, and the radiant part The privacy performance of the partitioned space can be significantly increased.

  Moreover, the radiation panel material of this invention is flat shape, The width direction orthogonal to the longitudinal direction of a radiation panel material inclines with respect to the direction perpendicular | vertical to the arrangement direction of a radiation panel material, It is characterized by the above-mentioned. When the radiation panel materials arranged in a row are viewed from the side, if the width direction of the radiation panel material is oriented in the direction perpendicular to the arrangement direction of the radiation panel materials, the radiation portion is passed through the gap between the radiation panel materials. The space on the opposite side sandwiched easily enters the field of view, and it becomes difficult to ensure the privacy of the space partitioned by the radiation part. On the other hand, in the above configuration, since the width direction of the radiation panel material is inclined with respect to the direction perpendicular to the direction in which the radiation panel materials are arranged, at least the radiation portion made of the radiation panel material arranged in a row is located at the side (radiation). A gap is hidden from the field of view when viewed from the direction perpendicular to the direction in which the panel members are arranged, and as a result, it is effective in ensuring the privacy of the space defined by the radiation portion. In addition, the thickness of the entire radiation part can be made thinner than when arranging each radiation panel material in a state where the width direction of the radiation panel material is perpendicular to the direction in which the radiation panel material is arranged. Can be achieved.

  Furthermore, it is preferable that the radiation panel materials provided adjacent to each other have regions that overlap each other with reference to a direction perpendicular to the arrangement direction of the radiation panel materials. The line of sight when the radiation part is viewed along the direction perpendicular to the direction in which the radiation panel materials are arranged is blocked by the overlapping radiation panel materials without passing through the gap. That is, by overlapping the radiation panel materials, it is possible to cut off the line of sight from the near side (near side) to the far side (opposite side) of the radiation part as much as possible. In addition, the inclination of the radiation panel material to the extent that the radiation panel materials overlap each other means that when each radiation panel material is orthographically projected in the direction of the line of sight, the area of the orthographic projection overlaps the radiation panel materials. Compared with the case where there is not, it will increase, and by this, it can also be expected that the radiation effect by each radiation panel material is increased.

  Further, the radiation panel material according to the present invention is formed with a bent portion or a curved portion at one or a plurality of places in the width direction orthogonal to the longitudinal direction, and the spacing between the adjacent radiation panel materials is It is characterized by being narrower than the thickness of the radiant panel material. According to this configuration, when the radiant panel material is provided with a bent portion or a curved portion, the thickness of the radiant panel material is increased as compared with the flat plate shape as a whole, and these radiant panel materials are arranged at intervals smaller than the thickness. The line of sight that attempts to pass between adjacent radiant panel materials will hit the bent or curved portions of these radiant panel materials, thereby blocking the view of the gaps between these radiant panel materials. As a result, the line of sight from any angle is restricted, and this is effective in ensuring the privacy of the space defined by the radiation portion.

  Further, the radiant panel material is provided with a main body part in which a U-shaped pipe for forming a heat medium flow path is provided at the center part in the width direction, and a bent part or a curved part on each of both side parts of the main body part. It is preferable that the portion is formed. The radiant panel material has a configuration in which a bent portion or a curved portion is formed so as to avoid the piping in the main body, so that bending force or bending associated with excessive bending or bending does not act on the U-shaped piping. There is no risk of disturbing the fluidity of the heat medium flowing in the U-shaped pipe.

  Furthermore, it is preferable that the front end of the bent portion or the curved portion protrudes in the same direction with respect to the main body portion, or the front end portion of the bent portion or the bent portion protrudes in a direction opposite to the main body portion. It is.

  Further, the present invention is a radiation panel material that is formed in a long shape and can be provided with a pipe that forms a flow path of the heat medium along the longitudinal direction, and includes one or more portions in the width direction orthogonal to the longitudinal direction. Is formed with a bent portion or a curved portion. If a plurality of radiation panel materials according to the present invention are arranged in a line to form a radiation portion, a gap between adjacent radiation panel materials is formed in a bent shape or a curved shape so that the line of sight is blocked. In other words, it is effective in securing the privacy of the space defined by the radiating portion by restricting the line of sight from all angles when the radiating portion is viewed from the side.

  Furthermore, the radiation panel material is provided with a main body portion in which a U-shaped pipe is disposed at the center in the width direction, and a bent portion or a curved portion is formed on each of both side portions of the main body portion. Is preferred. In this configuration, since the bent portion or the curved portion is formed so as to avoid the piping in the main body portion, the bending force or bending associated with excessive bending or bending does not act on the U-shaped piping, and the U-shaped There is no risk of disturbing the fluidity of the heat medium flowing in the pipe

  Further, the bent portion or the bent portion of the radiant panel material protrudes in the same direction with respect to the main body portion, or the bent portion or the bent portion protrudes in a direction opposite to the main body portion. It is also suitable.

  ADVANTAGE OF THE INVENTION According to this invention, a radiation | emission part can be functioned as a partition wall which can partition the space which can suppress the thickness of the whole apparatus and can ensure privacy.

It is a front view which shows the state which attached the radiation panel apparatus which concerns on 1st Embodiment of this invention. It is the elements on larger scale when the radiation panel material concerning a 1st embodiment is seen from the front. It is sectional drawing along the III-III line of FIG. It is a typical perspective view centering on the radiation part of the radiation panel material which concerns on 1st Embodiment. It is a figure which shows centering on the radiation | emission part of the radiation panel apparatus which concerns on 2nd Embodiment of this invention, (a) is sectional drawing, (b) is a perspective view of a blindfold material. It is a figure which shows the radiation part of the radiation panel apparatus which concerns on 3rd Embodiment of this invention, (a) is sectional drawing, (b) is a perspective view of a blindfold material. It is a typical top view which shows centering on the radiation part of the radiation panel apparatus which concerns on 4th Embodiment of this invention. It is a typical top view which shows the state which changed the arrangement | positioning of the radiation panel material in the radiation panel apparatus which concerns on 4th Embodiment, (a) is a figure which shows a 1st modification, (b) is 2nd It is a figure which shows the example of a change. It is a typical perspective view centering on the radiation | emission part of the radiation panel apparatus which concerns on 5th Embodiment. It is an end elevation when a radiation part of a radiation panel device concerning a 5th embodiment is fractured along a horizon. It is sectional drawing of the radiation panel material of the radiation panel apparatus which concerns on 5th Embodiment, (a) is a figure which shows a bending aspect, (b) is a figure which shows a bending aspect. It is a typical perspective view centering on the radiation | emission part of the radiation panel apparatus which concerns on 6th Embodiment. It is sectional drawing of the radiation panel material of the radiation panel apparatus which concerns on 6th Embodiment.

Preferred embodiments of the present invention will be described below with reference to the drawings.
(First embodiment)

  As shown in FIGS. 1 to 4, the radiation panel device 1 </ b> A is a radiation device that performs radiation heating or radiation cooling. Further, the radiant panel device 1A is installed in a narrow area around the water such as a washroom and is used as a simple partition wall. The radiant panel device 1 </ b> A is installed on a pair of support columns 3 erected in the vertical direction between a ceiling plate R and a floor plate F in a narrow area, and on the upper end (one end) side of the pair of support columns 3. A bridge 5 fixed to R, a plurality of long radiant panel members 7 whose upper ends are supported by the bridge 5, a blindfold 9 attached between adjacent radiant panel members 7, and a radiant panel member 7 is provided on the floor board F, and is provided with a condensed water receiving structure 11 that receives and discharges the condensed water dripping from the surfaces of the plurality of radiation panel members 7 positioned above.

  The radiant panel member 7 (see FIG. 3) is a long hollow member, which is made of a metal such as aluminum or stainless steel by, for example, extrusion forming a cylindrical body, and the cylindrical body is cut to a predetermined length. Thus, the radiation panel material 7 is disposed so that the longitudinal direction thereof is directed in the vertical direction, and is screwed to the bridge 5 via the panel cap at the upper end.

  A U-shaped heat medium flow pipe (pipe) 13 (see FIG. 4) for circulating a heat medium made of fluid, for example, antifreeze or water, is inserted into the radiation panel member 7. The heat medium flow pipe 13 includes an outward path portion 13a extending along the extending direction (vertically below) of the radiant panel member 7, and an opposite side of the extending direction of the radiant panel member 7 connected to the forward path portion 13a. And a return path portion 13b extending along the direction (vertically upward).

  The heat medium flow pipe 13 is made of a resin pipe having an inner diameter of 8 mm or less. By using the resin-made heat medium flow pipe 13 in this way, the flexibility is good, the heat medium flow pipe 13 can be bent to a small radius, and the processing of the heat medium flow pipes 13 and the assembly work to the radiation panel material 7 can be easily performed. . In this embodiment, a cross-linked polyethylene pipe is used as the resin pipe, but other polyolefin resin materials such as a polybuden pipe may be used.

  The heat medium flow pipe 13 inserted into the radiant panel material 7 is connected to the heat source 17 via the heat medium flow pipe 15, and the heat medium supplied from the heat source 17 is connected to the forward path portion 13 a from above. The heat medium flows downward, and in the return path portion 13b, the heat medium flows from the lower side to the upper side continuously to the forward path portion 13a on the lower side of the radiation panel material 7. The heat medium flow pipes 13 inserted into the respective radiation panel members 7 are connected to each other and constitute a part of a circulation path through which the heat medium circulates with the heat source 17.

  The plurality of radiant panel members 7 into which the heat medium flow tubes 13 are inserted are arranged in a line along one direction orthogonal to the longitudinal direction D1 of the radiant panel member 7. Specifically, assuming a virtual straight line L1 (see FIG. 3) passing through the center of the radiation panel material 7 along the out-of-plane direction of the radiation panel material 7, all the virtual straight lines of the plurality of radiation panel materials 7 are assumed. L1 is arranged side by side so as to overlap on the same straight line. As a result, the radiation panel member 7 is perpendicular to the virtual straight line L1 and the width direction D2 perpendicular to the longitudinal direction D1 of the radiation panel member 7 is directed to the direction D4 perpendicular to the arrangement direction D3 of the radiation panel members 7. ing.

  A holding member 19 for holding the plurality of radiation panel materials 7 at equal intervals is attached to the lower part of the radiation panel material 7. The holding member 19 is passed through the plurality of shaft tubes 19a and the shaft tube 19a for defining the space between the adjacent radiation panel materials 7 at equal intervals, and a plurality of radiations along the arrangement direction D3 of the radiation panel materials 7. And a shaft portion 19b penetrating the panel material 7. Both ends of the shaft portion 19b are fixed to the left and right support columns 3 with bolts.

  A plurality of protrusions (ribs) 7 a formed along the longitudinal direction D <b> 1 are formed on the outer peripheral surface of the radiation panel material 7. In addition, similar to the outer shape of the radiation panel material 7, a protrusion is formed on the support 3. A blindfold material 9 is mounted between the adjacent radiation panel materials 7 and between the column 3 and the radiation panel material 7 so as to be sandwiched between the plurality of protrusions 7a. The plurality of protrusions 7a of the radiant panel member 7 function as heat radiating and absorbing fins that increase the heat transfer area to the outside air, and the condensed water that adheres to the surface when the apparatus is used as a cooling device. It also functions as a guide.

  The blindfold material 9 is made of a resin flat plate which is rectangular and not transparent, and has a degree of flexibility that allows slight bending by human power. The blindfold 9 is fitted between the adjacent radiant panel members 7 while being slightly bent, and further, the lower end of the blindfold 9 is placed on the shaft tube 19a of the holding member 19 on the holding member 19. Supported. In this embodiment, the holding member 19 supports the blindfold 9 from below, and holds the blindfold 9 in a predetermined position. However, the blindfold 9 is directly screwed to the holding member 19 and the radiation panel member 7. You may make it stop and install. Further, by using the structure or the like, it is installed between the projections 7a of the adjacent radiant panel members 7, and as shown by the two-dot chain line in FIG. It can also be installed on the side.

  In the present embodiment, the radiation portion 20 </ b> A is formed by the plurality of radiation panel materials 7 and the plurality of blindfold materials 9. Furthermore, the radiation part 20A is provided with the blindfold material 9, thereby restricting the gap S between the radiation panel materials 7 from the line of sight E from the side along the direction D4 perpendicular to the arrangement direction D3 of the radiation panel materials 7. It is possible and can fully function as a partition wall.

  According to the radiation panel device 1A according to the present embodiment, since the radiation portion 20A is formed by the radiation panel material 7 arranged in a row, for example, the conventional radiation in which the radiation panel material 7 is arranged in two rows in a staggered manner. Compared with the panel device (see Patent Document 2), the thickness of the entire device (dimension in the direction orthogonal to the arrangement direction) can be remarkably suppressed, which is effective for miniaturization and miniaturization. Moreover, since the radiation part 20A is formed so that the gap S between the radiation panel members 7 can be regulated from the line of sight E from the side, the distance between the near side of the radiation part 20A and the opposite side thereof. The exchange of the line of sight E is restricted, and thereby the privacy of the space defined by the radiation unit 20A can be ensured.

Furthermore, since the blinding material 9 is installed between the radiation panel materials 7 provided adjacent to each other, the radiation portion 20A is suitable for blocking the line of sight E by the radiation portion 20A, and has a sound and smell. Accordingly, the privacy performance of the space partitioned by the radiation portion 20A can be remarkably enhanced.
(Second Embodiment)

  A radiation panel device 1B according to a second embodiment of the present invention will be described with reference to FIG. The radiation panel device 1B according to the second embodiment is different from the radiation panel device 1A according to the first embodiment in the structure of the blindfold material 21, and therefore, the description is focused on the blindfold material 21, and the first embodiment. Elements and members that are the same as those in the first embodiment are assigned the same reference numerals as in the first embodiment, and detailed descriptions thereof are omitted.

  The blindfold material 21 according to the present embodiment is a long member made of a resin plate having an L-shaped cross section, and is similar to the blindfold material 9 according to the first embodiment between adjacent radiation panel materials 7. It is mounted so as to close the gap S and is supported by the holding member 19 from below. Since the blindfold 21 is L-shaped and is more flexible than the blindfold 9 according to the first embodiment, the blindfold 21 can be deployed between the radiant panel members 7 while being bent. First, when restoring from the bent state, it becomes possible to press the wall surface of the radiant panel member 7 by exerting an elastic restoring force satisfactorily. Easy to remove. In the present embodiment, the radiation portion 20 </ b> B is formed by the plurality of radiation panel members 7 and the plurality of blindfold materials 21.

According to the radiation panel device 1B according to the present embodiment, it is advantageous for downsizing and compactness, and further, the gap S between the radiation panel materials 7 is in a direction D4 perpendicular to the arrangement direction D3 of the radiation panel materials 7. Since the radiation portion 20A is formed so that it can be regulated from the line of sight E from the side along, the exchange of the line of sight E between the near side of the radiation portion 20B and the opposite side thereof is regulated. The privacy of the space partitioned by the radiation part 20B can be ensured.
(Third embodiment)

  A radiation panel device according to a third embodiment of the present invention will be described with reference to FIG. Note that the radiation panel device 1C according to the third embodiment is different from the radiation panel device 1A according to the first embodiment in that the structure of the blindfold material 23 is different. Elements and members that are the same as those in the first embodiment are assigned the same reference numerals as in the first embodiment, and detailed descriptions thereof are omitted.

  The blindfold material 23 according to the present embodiment is a long member made of a resin plate having a wavy cross section, and the gap S between the adjacent radiation panel materials 7 is similar to the blindfold material 23 according to the first embodiment. And is supported by the holding member 19 from below. Since the blindfold 23 is corrugated, it is easier to bend than the blindfold 23 according to the first embodiment, and therefore it is easy to attach and remove between the radiation panel members 7. In the present embodiment, the radiation portion 20 </ b> C is formed by the plurality of radiation panel members 7 and the plurality of blindfold materials 23.

  According to the radiation panel device 1 </ b> C according to the present embodiment, it is advantageous for downsizing and compactness, and the gap S between the radiation panel materials 7 is along a direction D <b> 4 perpendicular to the arrangement direction of the radiation panel materials 7. The radiation portion 20C is formed so as to be restricted from the line of sight E from the side. Therefore, the exchange of the line of sight between the near side of the radiating unit 20C and the opposite side thereof is restricted, and thereby the privacy of the space defined by the radiating unit 20C can be ensured.

In the above first to third embodiments, the blindfolds 9, 21, and 23 are not provided with holes or the like in order to prioritize the shielding between adjacent spaces, but from the viewpoint of partial lighting, air permeability, and the like. The blindfold is formed of a perforated plate such as a punching plate, the blindfold is formed of a flat plate with slits, or the blindfold is formed of a resin plate having a partially transparent area. You may do it. Further, in order to improve the radiation function, the blindfold may be made of metal.
(Fourth embodiment)

  A radiation panel device 1D according to a fourth embodiment of the present invention will be described with reference to FIG. In addition, the radiation panel apparatus 1D which concerns on 4th Embodiment is not provided with the blindfold material, but has implement | achieved the aspect which can be regulated from the eyes | visual_axis E from at least right side by arrange | positioning the radiation panel material 7 diagonally. The line of sight E from the side means the line of sight E along the direction D4 perpendicular to the arrangement direction D3 of the radiation panel members 7. In addition, about the radiation panel apparatus 1D which concerns on 4th Embodiment, about the element and member similar to 1st Embodiment, the code | symbol same as 1st Embodiment is attached | subjected and detailed description is abbreviate | omitted.

  The radiation panel material 7 has a flat shape, and the plurality of radiation panel materials 7 are arranged in a line, but the width direction D2 of each of the plurality of radiation panel materials 7 is aligned with the arrangement direction D3 of the radiation panel materials 7. It is inclined with respect to the vertical direction D4. That is, the radiation panel material 7 according to the present embodiment has a width direction D2 that is not parallel to the line of sight E from the side as in the radiation panel device 1A according to the first embodiment, and a gradient of about 30 degrees to 60 degrees. It is arranged so as to be inclined.

  Further, the radiation panel members 7 arranged adjacent to each other have an overlapping region (wrap region) A with reference to a direction D4 perpendicular to the alignment direction D3 of the radiation panel materials 7. In the present embodiment, the radiation portion 20D is formed by a plurality of radiation panel materials 7 whose width direction D2 is inclined with respect to a direction D4 perpendicular to the arrangement direction D3 of the radiation panel materials 7.

  In the radiation panel device 1D according to the present embodiment, since the radiation portion 20D is formed by the radiation panel material 7 arranged in a row, for example, a conventional radiation panel device in which the radiation panel material 7 is arranged in a staggered manner in two rows. Compared with (refer to Patent Document 2), the thickness of the entire apparatus (dimension in the direction orthogonal to the arrangement direction) can be remarkably suppressed, which is effective for miniaturization and miniaturization. Further, the radiation portion 20D is formed so that the gap S between the radiation panel members 7 can be regulated from the line of sight E from the side. Therefore, the exchange of the line of sight E between the near side and the opposite (back) side of the radiating unit 20D is restricted, and thereby the privacy of the space defined by the radiating unit 20D can be ensured.

  Further, as in a conventional radiant panel device (see Patent Document 1), when the width direction of the radiant panel material is oriented in a direction perpendicular to the direction in which the radiant panel material is arranged, and there is no blinding material, the radiant portion is directly from the side. When viewed, the space on the opposite side across the radiant portion through the gap between the radiant panel members is likely to enter the field of view, making it difficult to ensure the privacy of the space defined by the radiant portion. On the other hand, in the radiation panel device 1D according to the present embodiment, the width direction D2 of the radiation panel material 7 is inclined with respect to the direction D4 perpendicular to the arrangement direction D3 of the radiation panel material 7, so that they are arranged in a line. The gap S is hidden from view when the radiation part 20D made of the radiation panel material 7 is viewed at least from the side (direction perpendicular to the arrangement direction D3 of the radiation panel material 7). As a result, the radiation part 20D is partitioned by the radiation part 20D. It is effective in ensuring the privacy of the space used. Further, the thickness of the entire radiation portion 20D can be made thinner than the case where the radiation panel materials 7 are arranged in a state where the width direction D2 of the radiation panel material 7 is perpendicular to the arrangement direction D3 of the radiation panel materials 7, As a result, the entire apparatus can be reduced in size.

  Furthermore, in this embodiment, since it has the lap | wrap area | region A, the eyes | visual_axis E from this side (front side) of the radiation part 20D to the other side (opposite side) can be interrupted | blocked as much as possible. Further, the inclination of the radiation panel material 7 to the extent that the radiation panel materials 7 overlap each other means that when each radiation panel material 7 is orthographically projected in the direction of the line of sight E from the side, the area of the orthographic projection is the radiation panel. It will increase compared with the case where the materials 7 do not overlap, and it can also be anticipated that the radiation effect by each radiation panel material 7 will increase by this. Furthermore, by arranging the radiation panel material 7 so as to form the wrap region A, the width of the entire apparatus is reduced as compared with an aspect in which the wrap region A is not formed.

In addition, the area | region (wrap area | region) A which overlaps on the basis of the direction D4 perpendicular | vertical to the arrangement direction D3 of the radiation panel material 7 is limited only to the aspect in which adjacent radiation panel materials 7 mutually overlap completely. For example, as in the first example shown in FIG. 8A, it is visually recognized that the edges of the adjacent radiation panel members 7 are in contact with each other on the basis of the direction D4 perpendicular to the arrangement direction D3. Embodiments are also included. Further, as in the second example shown in FIG. 8B, even when the wrap region A is not formed, the radiation portion 20D is viewed from the side by arranging the plurality of radiation panel members 7 in an inclined arrangement. In this case, the gap S is difficult to enter the field of view, and the effect of regulating the prospect from the gap can be expected. Therefore, even in the aspect of the second example shown in FIG. 8B, the effect of ensuring the privacy of the space partitioned by the radiation unit 20D can be expected.
(Fifth embodiment)

  A radiation panel device according to a fifth embodiment of the present invention will be described with reference to FIGS. Note that the radiation panel device 1E according to the fifth embodiment does not include a blindfold material, and realizes an aspect that can be regulated from the line of sight E from the side by giving a characteristic to the external shape of the radiation panel materials 25A and 25B. is doing. The line of sight E from the side means the line of sight E along the direction D4 perpendicular to the arrangement direction D3 of the radiation panel members 25A and 25B. In addition, about the radiation panel apparatus 1E which concerns on 5th Embodiment, about the element and member similar to 1st Embodiment, the code | symbol same as 1st Embodiment is attached | subjected and detailed description is abbreviate | omitted.

  First, the radiation panel materials 25A and 25B according to the present embodiment will be described. The radiant panel members 25A and 25B are long hollow members, and a main body portion 27 and a main body portion 27 that are disposed by inserting and fitting the U-shaped heat medium flow pipe 13 along the longitudinal direction. Side edge portions 29a, 29b, 31a, 31b formed on both side portions in the width direction D2 so as to sandwich them.

  For example, in the bending mode (Z-type mode) shown in FIG. 11A, in the cross-sectional shape when the radiating panel member 25A is cut along a plane orthogonal to the longitudinal direction of the radiating panel member 25A, The bent portions 29a and 29b are tapered so that the center line L2 of the side edge portions 29a and 29b intersects the center line L1 of the main body 27 at an angle α. Further, the end portions 29c and 29d farthest from the main body 27 of the side edge portions 29a and 29b are slightly rounded. Further, in the bending mode (S-type mode) shown in FIG. 11B, in the cross-sectional shape, the side edge portions (curved portions) 31a and 31b are tapered, and the center line of the side edge portions 31a and 31b. L <b> 3 communicates with the center line L <b> 1 of the main body 27 and is formed to be an arc having a rotation angle θ. Further, the end portions 31c and 31d farthest from the main body 27 of the side edge portions 31a and 31b are slightly rounded.

  Further, in both the bending mode and the bending mode, the distal end portions 29c, 31c of one side edge portions 29a, 31a of the radiation panel members 25A, 25B are in contrast to the distal end portions 29d, 31d of the other side edge portions 29b, 31b. Projecting in opposite directions. Specifically, in the case of the bending mode, as shown in FIG. 11A, one side (the upper side shown in FIG. 11A) of the virtual reference plane including the center line L1 of the main body 27 is provided. The front end portion 29c of the side edge portion 29a protrudes to the left side, and the front end portion 29d of the other side edge portion 29b (the lower side shown in FIG. 11A) protrudes to the right side. In the case of the curved mode, as shown in FIG. 11 (b), one side edge (upper side shown in FIG. 11 (b)) with respect to the virtual reference plane including the center line L1 of the main body 27. The tip 31c of 31a protrudes to the left, and the tip 31d of the other side edge 31b (the lower side shown in FIG. 11B) protrudes to the right.

  Here, the thickness Ta of the radiation panel members 25A and 25B is a size of an area in which the radiation panel members 25A and 25B can be shielded in the direction along the center line L1, for example, in the case of the radiation panel member 25A. Is a dimension obtained by adding the distance from the virtual reference plane including the center line L1 to the tip end portion 29c and the distance from the virtual reference plane to the tip end portion 29c. This is the dimension obtained by adding the distance from the surface to the tip 31c and the distance from the virtual reference surface to the tip 31d.

  Next, the radiation panel device 1E according to the present embodiment will be described with reference to FIGS. 9 and 10 show a mode in which the radiating panel members 25B in the curved mode are arranged in a line, and in the following description, the case where the radiating panel material 25B in the curved mode is applied will be described as an example. The same configuration can be realized by applying the radiation panel material 25A in a bent manner.

  The U-shaped heat medium flow pipe 13 inserted into the main body 27 of the radiation panel member 25B is connected to the heat source 17 via the heat medium flow pipe 15. The heat medium circulation pipe 13 forms a forward path and a return path of the heat medium supplied from the heat source 17 and constitutes a part of a circulation path through which the heat medium circulates with the heat source 17.

  The plurality of radiation panel members 25B are arranged in a line along one direction orthogonal to the longitudinal direction of the radiation panel member 25B. Specifically, when a virtual straight line is assumed along the out-of-plane direction of the radiation panel member 25B through the center of the main body portion 27 of the radiation panel member 25B, the virtual straight lines of the plurality of radiation panel members 25B are the same. They are arranged side by side so as to overlap on a straight line. As a result, the main body 27 of the radiation panel member 25B has the width direction D2 facing the direction D4 perpendicular to the arrangement direction D3 of the radiation panel member 25B. The width direction D2 means a direction orthogonal to the above-described virtual straight line and orthogonal to the longitudinal direction D1 of the radiation panel member 25B. In the present embodiment, the radiation portion 20E is formed by a plurality of radiation panel members 25B arranged in a line.

  The plurality of radiant panel members 25B are arranged such that the end portions 31c are directed in the same direction so that the one side edge portions 31a do not interfere with each other, and the other side edge portions 31b do not interfere with each other. Each tip 31d is arranged in the same direction. Moreover, the space | interval (gap width) Sa between adjacent radiation panel material 25B is narrower than thickness Ta of radiation panel material 25B (refer FIG. 10).

  According to the radiation panel device 1E according to the present embodiment, the radiation panel material 25B includes side edge portions (curved portions) 31a and 31b, so that the thickness of the radiation panel material 25B as a whole is increased compared to a flat plate. By arranging these radiation panel members 25B at intervals narrower than their thickness, the line of sight E trying to pass through adjacent radiation panel members 25B hits the side edges (curved portions) 31a, 31b of these radiation panel members 25B. As a result, the gap S between the radiation panel members 25B is blocked from view. As a result, it is effective in restricting the line of sight from all angles and ensuring the privacy of the space defined by the radiation portion 20E. Similarly, when the radiation panel member 25A is applied, the gap S between the adjacent radiation panel members 25A is blocked from the line of sight, and the line of sight from all angles is restricted and is partitioned by the radiation portion 20E. It is effective in securing the privacy of the space.

Furthermore, the radiation panel member 25B according to the present embodiment is provided with a main body portion 27 in which a U-shaped heat medium flow pipe 13 that forms a heat medium flow path is provided at the center in the width direction D2, and Side edge portions (curved portions) 31 a and 31 b are formed on both side portions of the main body portion 27. That is, side edges (curved portions) 31a and 31b are formed on both sides of the radiant panel material 25B so as to avoid the heat medium flow tube 13, so that the U-shaped heat medium flow tube 13 cannot be bent or bent. Therefore, there is no possibility that the fluidity of the heat medium flowing in the U-shaped heat medium flow pipe 13 will be hindered. Similarly, when the radiation panel member 25A is applied, the side edge portions (bent portions) 29a and 29b are formed on both sides of the radiation panel member 25A so as to avoid the heat medium flow pipe 13, so that a U-shape is formed. No bending force or bending due to excessive bending or bending is applied to the heat medium flow pipe 13, and there is no possibility of disturbing the fluidity of the heat medium flowing in the U-shaped heat medium flow pipe 13.
(Sixth embodiment)

  A radiation panel device according to a sixth embodiment of the present invention will be described with reference to FIGS. 12 and 13. In addition, the radiation panel device 1F according to the sixth embodiment does not include a blindfold, and similarly to the radiation panel device 1E according to the fifth embodiment, by giving a characteristic to the external shape of the radiation panel material 32, The mode which can be controlled from line of sight E from the side is realized. The line of sight E from the side means the line of sight E along the direction D4 perpendicular to the arrangement direction D3 of the radiation panel members 32. In addition, about the radiation panel apparatus 1F which concerns on 6th Embodiment, about the element and member similar to 1st Embodiment or 5th Embodiment, the code | symbol same as 1st Embodiment or 5th Embodiment is attached | subjected and details are given. The detailed explanation is omitted.

  The radiation panel member 32 according to the present embodiment is a long hollow member, and is formed by, for example, extrusion molding a metal such as aluminum or stainless steel. The radiant panel member 32 has a main body 33 disposed by inserting the U-shaped heat medium flow pipe 13 along the longitudinal direction D1, and both sides of the width direction D2 so as to sandwich the main body 33. Formed side edge portions 35a and 35b. The shape of the side edge portions 35a and 35b may be a mode of bending and connecting to the main body 33 (bending mode) or a mode of bending and connecting (curving mode). In addition, the radiation panel material 32 which concerns on a curve aspect is shown by FIG.12 and FIG.13.

  The front end portions 37a and 37b of both side edge portions 35a and 35b of the radiation panel member 32 protrude in the same direction (C-type aspect). Specifically, as shown in FIG. 13, the tip portions 37a and 37b of both side edge portions 35a and 35b protrude to the left with respect to a virtual reference plane including the center line L1 of the main body portion 33. The thickness Tb of the radiant panel member 32 is a dimension of an area where the radiant panel member 32 can be shielded with respect to the direction along the center line L1.

  The plurality of radiation panel members 32 are arranged in a line along one direction orthogonal to the longitudinal direction D <b> 1 of the radiation panel member 32. Specifically, when assuming an imaginary straight line passing through the center of the main body 33 of the radiant panel material 32 and along the out-of-plane direction of the radiant panel material 32, the imaginary straight lines of all the radiant panel materials 32 are They are arranged side by side so as to overlap on the same straight line. As a result, the main body portion 33 of the radiation panel member 32 has the width direction D2 facing the direction D4 perpendicular to the arrangement direction D3 of the radiation panel members 32. The width direction D2 means a direction orthogonal to the above-described virtual straight line and orthogonal to the longitudinal direction D1 of the radiation panel member 32. In the present embodiment, the radiation portion 20F is formed by a plurality of radiation panel members 32 arranged in a line.

  The plurality of radiation panel members 32 are arranged so that the front end portions 37a and 37b of the side edge portions 35a and 35b are directed in the same direction so as not to interfere with each other. Further, an interval (gap width) Sb between adjacent radiation panel members 32 is narrower than a thickness Tb of the radiation panel member 32.

  According to the radiation panel device 1F according to the present embodiment, the radiation panel material 32 includes the side edges 35a and 35b, so that the radiation panel material 32 is thicker than the flat panel material 32 as a whole. By arranging 32 at intervals narrower than the thickness, the line of sight E trying to pass between adjacent radiating panel members 32 hits the side edges 35a and 35b of these radiating panel members 32, thereby causing these radiating panels. The gap S between the materials 32 is obstructed by the line of sight. As a result, it is effective in restricting the line of sight from all angles and ensuring the privacy of the space defined by the radiation unit 20F.

  Furthermore, the radiant panel member 32 according to the present embodiment is provided with a main body portion 33 in which a U-shaped heat medium flow pipe 13 that forms a heat medium flow path is provided at the center in the width direction D2, and Side edge portions (bent portions or curved portions) 35a and 35b are formed on both side portions of the main body portion 33, respectively. That is, side edge portions (bent portions or curved portions) 35a and 35b are formed on both sides of the radiant panel material 32 so as to avoid the heat medium flow tube 13, so that the U-shaped heat medium flow tube 13 is impossible. Therefore, there is no possibility that the bending force or bending accompanying the bending or bending will be affected, and the fluidity of the heat medium flowing in the U-shaped heat medium flow pipe 13 will be hindered.

  As mentioned above, although this invention was concretely demonstrated based on the embodiment, this invention is not limited to the said embodiment. For example, in the radiant panel material according to the fifth and sixth embodiments described above, the bent portion and the curved portion are formed in each of the both side portions (total of two locations) of the main body portion, but either one of the side portions (total 1 May be formed at three locations), or may be formed at three or more locations in the width direction of the radiation panel material. Moreover, in the radiation panel material which concerns on said 5th and 6th embodiment, although the main-body part and the bending part or the curved part were integrally formed, a different body may be sufficient.

  1A, 1B, 1C, 1D, 1E, 1F ... Radiation panel device, 7, 25A, 25B, 32 ... Radiation panel material, 9, 21, 23 ... Blindfold material, 13 ... Heat medium flow pipe (pipe), 20A, 20B , 20C, 20D, 20E, 20F ... radiation portion, 27, 33 ... central portion of the radiation panel material, 29a, 29b ... bent portion of the radiation panel material, 31a, 31b ... curved portion of the radiation panel material, A ... overlapping region, D1: Longitudinal direction of the radiation panel material, D2: Width direction of the radiation panel material, D3: Arrangement direction of the radiation panel material, D4: Direction perpendicular to the arrangement direction, E: Line of sight from the side, S: Gap, Sa, Sb ... spacing between radiant panel materials, Ta, Tb ... thickness of radiant panel material.

Claims (12)

In a radiant panel device comprising a radiant portion formed by arranging long radiant panel materials in a row at a predetermined interval,
The radiation panel device is characterized in that a gap between the radiation panel members is formed so as to be restricted from a line of sight along a direction perpendicular to the direction in which the radiation panel members are arranged.   The radiation panel according to claim 1, wherein the radiation section includes a plurality of the radiation panel materials and a blindfold material installed in a gap between the radiation panel materials provided adjacent to each other. apparatus. The radiant panel material is flat,
The radiation panel device according to claim 1, wherein a width direction orthogonal to a longitudinal direction of the radiation panel material is inclined with respect to a direction perpendicular to an arrangement direction of the radiation panel materials.   The radiating panel device according to claim 3, wherein the radiating panel members provided adjacent to each other have regions that overlap each other on the basis of a direction perpendicular to an arrangement direction of the radiating panel members.   The radiation panel material is formed with a bent portion or a curved portion at one or a plurality of positions in the width direction orthogonal to the longitudinal direction, and the interval between the adjacent radiation panel materials is the thickness of the radiation panel material. The panel device according to claim 1, wherein the panel device is narrower.   The radiant panel material is provided with a main body portion in which a U-shaped pipe that forms a flow path of a heat medium is provided in a central portion in the width direction, and the bent portion or each of both side portions of the main body portion. 6. The radiation panel device according to claim 5, wherein a curved portion is formed.   The radiation panel device according to claim 6, wherein a distal end portion of the bent portion or the curved portion protrudes in the same direction with respect to the main body portion.   The radiation panel device according to claim 6, wherein tip portions of the bent portion or the curved portion protrude in directions opposite to each other with respect to the main body portion.   A radiant panel material which is formed in a long shape and can be provided with a pipe which forms a flow path of a heat medium along the longitudinal direction, and is bent or curved at one or a plurality of positions in the width direction orthogonal to the longitudinal direction. Radiant panel material characterized by being provided with a portion.   A body part for disposing the U-shaped pipe is provided at a central part in the width direction, and the bent part or the curved part is formed on each of both side parts of the body part. Item 10. A radiation panel material according to Item 9.   The radiation panel material according to claim 10, wherein a distal end portion of the bent portion or the curved portion protrudes in the same direction with respect to the main body portion. The radiation panel material according to claim 10, wherein tip portions of the bent portion or the curved portion protrude in directions opposite to each other with respect to the main body portion.

Images