JP2010081717A - Apparatus accommodation box, cooling structure of the apparatus accommodation box, and apparatus cooling member - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an apparatus accommodation box, a cooling structure of the apparatus accommodation box, and an apparatus cooling member capable of radiating heat out of a box body and preventing faults that arises from heat generated from an apparatus while suppressing condensation inside the box body. <P>SOLUTION: The apparatus accommodation box 10 includes the box body 11 and the apparatus cooling member 21 integrated with this box body 11. The apparatus cooling member 21 includes a heat transmission part 23, which is thermally coupled to an apparatus K and to which heat generated from the apparatus K is transmitted, and a heat radiation part 26, which is integrated with the heat transmission part 23 and radiates the heat of the heat transmission part 23 outside the box body 11. The apparatus cooling member 21 is made of a metal whose thermal conductivity is higher than that of the box body 11. A through-hole 12a which exposes the heat radiation part 26 outside the box body 11, is formed on a part of the bottom wall 12 of the box body 11. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

  The present invention has a box body made of a synthetic resin having a bottomed box shape that opens to one surface from a bottom wall and a peripheral wall standing up from the peripheral edge of the bottom wall, and the apparatus is accommodated in the box body. The present invention relates to a device housing box, a cooling structure for the device housing box, and a device cooling member forming the device housing box.

In order to install the equipment on the concrete wall (concrete frame), a wiring box for housing the equipment is embedded in the concrete wall. When the wiring box is made of metal, when the concrete wall is cooled due to a decrease in the outside air temperature, the air in the wiring box is cooled and the inner surface of the wiring box is likely to condense. Therefore, as a wiring box embedded in a concrete wall, a wiring box formed of a synthetic resin having a thermal conductivity lower than that of metal is used (for example, see Patent Document 1).
JP-A-2005-45893

  However, some devices housed in the wiring box become heat sources that generate a large amount of heat. At this time, in the wiring box made of synthetic resin having low thermal conductivity, heat is trapped in the wiring box, which may cause deformation of the wiring box and malfunction of the device.

  The present invention has been made paying attention to such problems existing in the prior art, and its purpose is to release heat to the outside of the box body while suppressing condensation in the box body. Another object of the present invention is to provide a device housing box, a cooling structure for the device housing box, and a device cooling member that can prevent problems caused by heat generated from the device.

  In order to solve the above-mentioned problems, the invention described in claim 1 is a synthetic resin box having a bottomed box shape that opens to one surface from a bottom wall and a peripheral wall standing from the periphery of the bottom wall. A device housing box that has a main body and in which a heat-generating device is housed in the box body, and an apparatus cooling member that is integrated with the box body and made of a material having a higher thermal conductivity than the box body. The device cooling member is thermally coupled to the device to transmit heat generated from the device, and is thermally coupled to the heat transfer unit and heat from the heat transfer unit. The present invention is summarized in that a heat radiating portion for discharging the heat radiating portion to the outside of the main body is formed, and a through-hole for exposing the heat radiating portion to the outside of the box main body is formed in a part of the bottom wall or the peripheral wall. Note that “exposing the heat radiating part to the outside of the box body” does not necessarily mean that the heat radiating part directly faces the outside of the box body from the through hole, but the heat radiating part is indirectly exposed from the through hole. It also means to face.

The gist of the invention according to claim 2 is that, in the device housing box according to claim 1, the heat transfer section is formed in a size within a range where heat generated from the device is transmitted.
A third aspect of the present invention is the apparatus housing box according to the first or second aspect, wherein the heat transfer section has a flat plate shape extending along the inner surface of the bottom wall or the inner surface of the peripheral wall. And

  Invention of Claim 4 is an apparatus accommodation box as described in any one of Claims 1-3. WHEREIN: The said heat-transfer part is the said apparatus, the inner surface of the said bottom wall, or the inner surface of a surrounding wall. It is set as a summary to arrange | position between.

The gist of the invention according to claim 5 is that, in the device housing case according to any one of claims 1 to 4, the heat transfer portion is provided with a fixing portion of the device. To do.
A sixth aspect of the present invention is summarized in that, in the device housing box according to the fifth aspect, the fixing portion is a plurality of fixing holes recessed in the heat transfer portion.

  According to a seventh aspect of the present invention, in the device housing case according to any one of the first to sixth aspects, the heat radiating portion is formed from the outer surface of the bottom wall or the outer surface of the peripheral wall to the outside of the main body. The point is that it protrudes.

  Invention of Claim 8 is an apparatus accommodation box as described in any one of Claims 1-6. WHEREIN: The said thermal radiation part is extended along the outer surface of the said bottom wall, or the outer surface of a surrounding wall. The gist is that it is formed.

  The invention according to claim 9 has a box body made of a synthetic resin having a box shape that opens to one surface from a bottom wall and a peripheral wall standing from the periphery of the bottom wall, and heat is generated in the box body. A cooling structure of a device storage box in which a device is stored, wherein the device storage box is integrated with the box body and includes a device cooling member made of a material having a higher thermal conductivity than the box body, The equipment cooling member is thermally coupled to the equipment to transmit heat generated from the equipment, and is integrated with the heat conduction section and releases heat of the heat conduction section to the outside of the box body. And a through hole that exposes the heat dissipating part to the outside of the box body is formed in a part of the bottom wall or the peripheral wall, and the heat dissipating part is thermally applied to the concrete frame. The box body is fixed to the outer surface of the concrete frame in a coupled state, or And summarized in that is embedded in Nkurito skeleton body.

  The invention according to claim 10 is a box made of synthetic resin having a bottomed box shape that opens to one surface from a bottom wall and a peripheral wall erected from the peripheral edge of the bottom wall and in which a heat-generating device is accommodated. An apparatus cooling member integrated with the main body, made of a material having a higher thermal conductivity than the box main body, and a contact portion that contacts the inner surface of the bottom wall or the peripheral wall, and the apparatus cooling member as the box main body A fixing hole to which the device is fixed, a heat transfer portion that is thermally coupled to the device fixed to the fixing portion and transmits heat generated from the device, and the bottom wall or The gist of the invention is to have a heat radiating part exposed to the outside of the box body through a through hole formed in a part of the peripheral wall.

  ADVANTAGE OF THE INVENTION According to this invention, heat | fever can be discharge | released out of a box main body, suppressing the dew condensation in a box main body, and the malfunction resulting from the heat | fever generate | occur | produced from an apparatus can be prevented.

(First embodiment)
Hereinafter, a first embodiment in which the device housing box, the cooling structure of the device housing box, and the device cooling member of the present invention are embodied will be described with reference to FIGS. In the following description, the “front” and “rear” of the device housing box and the device cooling member are the directions of the arrow Y1 shown in FIG. 1, and the “upper” and “lower” are the arrows shown in FIG. The direction of Y2 is the up-down direction. In addition, the “left” and “right” of the device housing box and the device cooling member have the direction of the arrow Y3 shown in FIG.

  As shown in FIG. 1, the device housing box 10 has a box body 11 made of a synthetic resin (in this embodiment, vinyl chloride) having a bottomed square box shape opened to the front surface (one surface). The box body 11 is formed of a rectangular plate-like bottom wall 12 and a peripheral wall 13 erected from the periphery of the bottom wall 12. The box body 11 is formed in a size that can accommodate two devices K (see FIG. 3). The device K is connected to a cable (not shown) drawn into the box body 11 and is driven by a power supply from a power source (not shown) via the cable. It has a heat generating property that generates a large amount of heat (for example, CPU).

  On the peripheral wall 13, boss portions 14 are provided so as to project from the left and right side portions of the inner surface opposite to each other in the vertical direction (short side direction) of the box body 11. In addition, on the inner surface of the bottom wall 12, bar material insertion portions 15 are formed on the left and right sides of the bottom wall 12 so as to extend in the vertical direction, and each bar material insertion portion 15 has a reinforcing bar material 16. It can be inserted. Further, a cable insertion hole 13a for drawing a cable (not shown) into the box body 11 is formed in the peripheral wall 13, and the cable insertion hole 13a is closed by a lid member 13b.

  On the inner surface of the bottom wall 12, four cylindrical mounting portions 17 are provided on both sides in the left-right direction (long side direction), and mounting screws 17a can be forcibly screwed into each mounting portion 17. It has become. Among the four attachment portions 17, the upper two attachment portions 17 are arranged along the upper inner surface of the peripheral wall 13, and the lower two attachment portions 17 are arranged along the lower inner surface of the peripheral wall 13. Yes. The four attachment portions 17 are arranged so that a quadrangle is formed by a straight line connecting the attachment portions 17. Further, the front end surfaces of all the mounting portions 17 are parallel to the inner surface of the bottom wall 12 and are all located on the same plane. In the bottom wall 12, four through holes 12 a are formed in a region surrounded by the four attachment portions 17. Each through-hole 12a is formed in a circular hole shape.

  A device cooling member 21 is attached (integrated) to the box body 11. The equipment cooling member 21 is formed of a metal (in this embodiment, aluminum) having a higher thermal conductivity than the synthetic resin (vinyl chloride) forming the box body 11, and the equipment cooling member 21 is formed by an aluminum die casting method. Molded. As shown in FIG.1 and FIG.2, the apparatus cooling member 21 is formed in square plate shape. Each of the pair of corners located on one diagonal line of the device cooling member 21 is formed with a mounting hole 21a, and the mounting screw 17a described above can be inserted into each mounting hole 21a.

  The equipment cooling member 21 has a flat plate-like heat transfer portion 23, the front surface of the heat transfer portion 23 is formed in a flat shape, and a number of fixing holes 23 b are recessed in the front surface of the heat transfer portion 23. Has been. A fixing screw 24 for fixing the device K to the device cooling member 21 can be forcibly screwed into the fixing hole 23b, and the fixing screw 24 attached to the device K can be forcibly screwed into the fixing hole 23b. The device K is fixed to the heat transfer section 23. In a state where the device K is fixed to the heat transfer unit 23, a part of the device K comes into contact with the heat transfer unit 23, and heat generated from the device K is transmitted to the heat transfer unit 23.

  As shown in FIG. 2, a rib 25 as an abutting portion is erected on the peripheral edge portion of the rear surface of the device cooling member 21. In addition, on the rear surface of the equipment cooling member 21, column-shaped heat radiation portions 26 are erected at four locations, and these heat radiation portions 26 are erected from a position covering almost the entire rear surface of the equipment cooling member 21. Yes. Each of the heat radiating portions 26 is set slightly smaller than the diameter of the through hole 12a so as to be fitted into the through hole 12a of the box body 11.

  As shown in FIGS. 3 and 4, the device cooling member 21 is attached to the box body 11 by forcibly screwing the attachment screw 17 a inserted through each attachment hole 21 a into the attachment portion 17 (integrated) Have been). In a state where the device cooling member 21 is attached to the box body 11, the rear end surface of the rib 25 is in contact with the tip surface of the attachment portion 17 as the inner surface of the bottom wall 12 in the box body 11. Further, in a state where the device cooling member 21 is attached to the box body 11, the heat radiating portion 26 is fitted into the through hole 12 a and the front end surface of the heat radiating portion 26 and the outer surface of the bottom wall 12 are flush with each other. Yes. The device housing box 10 is configured by integrating the device cooling member 21 with the box body 11.

Next, the method of embedding the equipment K in the concrete wall W as a concrete frame using the equipment housing box 10 and the operation of the equipment housing box 10 will be described.
First, as shown in FIG. 1, the bar material 16 is inserted into each bar material insertion portion 15 of the box body 11, and the upper and lower side portions of the bar material 16 protruding from the bar material insertion portion 15 are respectively connected to the concrete wall W. The box body 11 is fixed to the reinforcing bar T by binding to the reinforcing bar T to be constructed. Next, as shown in FIG. 3, the mounting screws 17 a inserted through the mounting holes 21 a of the equipment cooling member 21 are forcibly screwed into the mounting portion 17 to attach the equipment cooling member 21 to the box body 11 and the equipment housing box 10. Form.

  Here, the size of the device cooling member 21 to be used is adjusted according to the amount of heat generated by the device K accommodated in the box body 11. That is, the boundary of the heat range (heat transfer range) spreading along the planar direction of the heat transfer section 23 is positioned at the edges of the heat transfer section 23 (the left and right edges of the heat transfer section 23 in FIG. 3). The size of the heat transfer section 23 is adjusted. Further, the device cooling member 21 is fixed to the box body 11 so that the heat transfer section 23 is along the inner surface of the bottom wall 12 (so as to be parallel).

  Next, the fixing screw 24 attached to the device K is forcibly screwed into the fixing hole 23 b to fix the device K to the heat transfer section 23. At this time, the fixed position with respect to the heat-transfer part 23 is adjusted so that the apparatus K may cover the four thermal radiation parts 26. FIG. And in the state to which the apparatus K was fixed to the apparatus cooling member 21, as shown in FIG. 4, while the heat-transfer part 23 (heat-transfer part) is arrange | positioned between the apparatus K and the bottom wall 12, and apparatus K, the heat transfer part 23, and the heat radiation part 26 are arrange | positioned on the same straight line.

  After that, a mold frame (not shown) is constructed so that the device housing box 10 is sandwiched from the front and back, and concrete wall W is constructed by placing concrete between the mold frames, and the device housing box 10 is embedded in the concrete wall W. At the same time, a cooling structure for the device housing box 10 is formed.

  In a state in which the device housing box 10 is embedded in the concrete wall W, the heat radiating part 26 penetrates the bottom wall 12 and is exposed to the outside of the box body 11, and the front end surface of the heat radiating part 26 contacts the concrete wall W to generate heat. Combined. Therefore, the apparatus K, the heat transfer part 23, the heat radiating part 26, and the concrete wall W are arrange | positioned on the same straight line, and the heat transfer path extended toward the concrete wall W from the apparatus K is formed. Further, the heat generated from the device K is transmitted to the vicinity of the edge of the heat transfer section 23 along the planar direction of the heat transfer section 23.

  When a large amount of heat is generated from the device K in the box body 11, the heat from the device K is transmitted to the heat transfer unit 23, and most of the heat transferred to the heat transfer unit 23 is transmitted to the heat dissipation unit 26. Is transmitted to the rib 25. The heat transmitted to the heat radiating portion 26 is transmitted to the concrete wall W and released to the outside of the box body 11. Further, the heat transmitted to the rib 25 is transmitted to the concrete wall W through the bottom wall 12 and released to the outside of the box body 11.

According to the above embodiment, the following effects can be obtained.
(1) The device housing box 10 is formed by integrating a device cooling member 21 with a box body 11. The equipment cooling member 21 is formed of a metal having a higher thermal conductivity than the box body 11, and the heat transfer part 23 through which the heat generated by the equipment K is transmitted and the heat transferred to the heat transfer part 23 to the outside of the box body 11. And a heat dissipating part 26 for discharging. Further, the bottom wall 12 of the box body 11 is formed with a through hole 12a through which the heat radiating portion 26 of the device cooling member 21 can pass. For this reason, according to the equipment storage box 10, heat generated from the equipment K can be transmitted from the heat transfer section 23 to the heat radiating section 26 and released from the heat radiating section 26 to the concrete wall W. Therefore, it is possible to prevent the heat generated from the device K from being trapped in the box body 11 and to prevent the occurrence of problems such as deformation of the box body 11 due to heat and malfunction of the device K. Further, even when the concrete wall W cools due to a decrease in the outside air temperature, the box body 11 is made of synthetic resin. Therefore, the box body 11 is difficult to be cooled, and condensation of the inner surface of the box body 11 can be suppressed.

  (2) Four heat dissipating portions 26 are erected on the equipment cooling member 21. For this reason, for example, the heat transmitted to the heat transfer section 23 can be efficiently released to the concrete wall W as compared with the case where only one heat dissipation section 26 is erected on the equipment cooling member 21.

  (3) The equipment cooling member 21 is attached to the bottom wall 12 so that the front face of the heat transfer section 23 is along the inner surface of the bottom wall 12 (so as to be parallel), and the equipment K is attached to the front face of the heat transfer section 23. Fixed. For this reason, for example, compared with the case where the equipment cooling member 21 is attached to the bottom wall 12 so that the heat transfer section 23 is orthogonal to the inner surface of the bottom wall 12, the equipment cooling member 21 faces the inner surface of the bottom wall 12. The area to be made can be widened. As a result, the number of heat dissipating portions 26 that can be exposed to the concrete wall W through the bottom wall 12 can be increased, and heat dissipating efficiency can be increased.

  (4) A large number of fixing holes 23 b are recessed in the heat transfer section 23 of the equipment cooling member 21. For this reason, the selection width | variety of the screwing position to the heat-transfer part 23 of the fixing screw 24 attached to the apparatus K can be enlarged. Therefore, the device K can be fixed to the heat transfer unit 23 so that the device K is located at a position corresponding to the heat dissipation unit 26, and the heat generated from the device K can be efficiently transmitted to the heat dissipation unit 26.

  (5) In a state where the device K is stored in the device storage box 10, the device K, the heat transfer unit 23, the heat dissipation unit 26, and the concrete wall W are located on the same straight line. For this reason, the heat generated from the device K can be transmitted linearly toward the concrete wall W, and the heat can be efficiently released to the concrete wall W.

  (6) The size of the planar shape of the heat transfer unit 23 is adjusted so that the boundary of the heat transfer range of the heat generated from the device K is located near the edge of the heat transfer unit 23. For this reason, for example, it can prevent that the site | part which the heat from the apparatus K does not transmit in the heat transfer part 23 because the planar shape of the heat transfer part 23 is too larger than the heat transfer range.

(Second Embodiment)
Next, the 2nd Embodiment which actualized the apparatus storage box of this invention, the cooling structure of an apparatus storage box, and an apparatus cooling member is described according to FIG.5 and FIG.6. In the following description, the same reference numerals are given to the same configurations as those of the already described embodiments, and the overlapping description is omitted or simplified.

  As shown in FIG. 5, the device housing box 30 of the second embodiment has a box body 31 made of a synthetic resin having a bottomed square box shape opened on the front surface (one side), and is integrated with the box body 31. The metal equipment cooling member 41 made into a metal is provided. The box body 31 of the second embodiment is formed of a rectangular plate-shaped bottom wall 32 and a peripheral wall 33 erected from the periphery of the bottom wall 32, and the box body 31 accommodates two devices K. It is formed in a possible size. The box body 31 includes a boss portion 34 and a bar material insertion portion 35 as in the first embodiment.

  In the box body 31, the bottom wall 32 is shorter in the left-right direction (long side direction) than the bottom wall 12 of the box body 11 described in the first embodiment. Further, two through holes 32 a are formed on the left side of the bottom wall 32, while no through holes 32 a are formed on the right side of the bottom wall 32. Further, four attachment portions 37 protrude from the right side of the bottom wall 32, while no attachment portion 37 is formed on the left side of the bottom wall 32.

  The equipment cooling member 41 has a rectangular flat plate-shaped heat transfer portion 43, the front surface of the heat transfer portion 43 is formed in a flat shape, and a number of fixing holes 43b are recessed in the front surface of the heat transfer portion 43. It is installed. As shown in FIG. 6, ribs 45 are erected on the peripheral edge of the rear surface of the device cooling member 41. Further, as shown in FIG. 5, a cylindrical heat radiation portion 46 is erected at two locations on the rear surface of the device cooling member 41.

  As shown in FIG. 6, the outer diameter of the base end side (heat transfer part 43 side) of each heat radiating part 46 is set longer than the diameter of the through hole 32a. Further, a screw portion 46 a is formed on the outer peripheral surface on the tip side of each heat radiating portion 46. The outer diameter of the screw portion 46a is smaller than the base end side of the heat radiating portion 46 and is set shorter than the diameter of the through hole 32a. A stepped portion 46b is formed between the proximal end side and the distal end side (screw portion 46a), which is the central portion of the heat radiating portion 46 in the length direction. The device cooling member 41 includes a metal nut body 47 that can be screwed into the screw portion 46a.

  Now, as shown in FIG. 5, the bar material 16 inserted into the bar material insertion portion 35 is used to bind to the reinforcing bar T that constructs the concrete wall W, and the box body 31 is fixed to the reinforcing bar T. Next, as shown in FIG. 6, the heat radiating portion 46 of the device cooling member 41 is inserted into the through hole 32a, and the stepped portion 46b is brought into contact with the inner surface of the bottom wall 32 located at the periphery of the through hole 32a. Next, the nut body 47 is screwed into the screw portion 46 a protruding from the through hole 32 a, the bottom wall 32 is sandwiched between the stepped portion 46 b and the nut body 47, and the device cooling member 41 is attached to the bottom wall 32. As a result, the device cooling member 41 and the box body 31 are integrated, and the device storage box 30 is formed. The equipment cooling member 41 is attached to the box body 31 so that the heat transfer portion 43 is along the inner surface of the bottom wall 12 (so as to be parallel).

  Thereafter, the fixing screw 24 attached to the device K is forcibly screwed into the fixing hole 43 b to fix the device K to the heat transfer section 43. At this time, the fixed position with respect to the heat-transfer part 43 is adjusted so that the apparatus K may cover the two heat radiating parts 46 (refer FIG. 5). In the state where the device K is fixed to the device cooling member 41, the heat transfer unit 43 (heat transfer unit) is disposed between the device K and the bottom wall 32, and the device K, the heat transfer unit 43, And the heat radiating part 46 is arrange | positioned on the same straight line. And the concrete wall W is constructed | assembled by constructing the formwork which is not shown in figure, and placing concrete between the formwork, and the cooling structure of the equipment accommodation box 30 is embedded in the concrete wall W. It is formed. In the cooling structure of the device housing box 30, the concrete also enters the inside of the heat radiating portion 46.

  In a state where the device housing box 30 is embedded in the concrete wall W, the heat radiating part 46 penetrates the bottom wall 32 and is exposed to the outside of the box main body 31, and the front end surface and inner peripheral surface of the heat radiating part 46, and the nut body 47. Are in thermal contact with the concrete wall W. Therefore, the device K, the heat transfer unit 43, the heat radiating unit 46, the nut body 47, and the concrete wall W are arranged on the same straight line, and a heat transfer path extending from the device K toward the concrete wall W is formed.

  When a large amount of heat is generated from the device K in the box body 31, most of the heat is transferred to the heat transfer section 43 (heat transfer section) and further transferred to the heat dissipation section 46 and the nut body 47. The heat transmitted to the heat radiating portion 46 and the nut body 47 is transmitted to the concrete wall W and released to the outside of the box body 31. A part of the heat generated from the device K is transmitted to the rib 45, is transmitted to the concrete wall W through the bottom wall 32, and is released to the outside of the box body 11.

  An instrument mounting plate 48 having a plate shape is attached to the right side of the bottom wall 32 by using the mounting portion 37, and a device 49 with low heat generation is attached to the instrument mounting plate 48.

Therefore, according to the second embodiment, the following effects can be obtained in addition to the effects similar to the effects described in (1), (3) to (5), (6) of the first embodiment. it can.
(7) The heat radiating portion 46 includes a screw portion 46a. The screw portion 46a passes through the through hole 32a and protrudes out of the bottom wall 32, and a nut body 47 is screwed into the screw portion 46a. The distal end surface and the inner peripheral surface of 46a and the outer peripheral surface of the nut body 47 are in contact with the concrete wall W. Therefore, the site | part thermally couple | bonded with respect to the concrete wall W can be made wide, and the heat | fever generate | occur | produced with the apparatus K can be discharge | released to the concrete wall W efficiently.

(Third embodiment)
Next, a third embodiment in which the device housing box, the cooling structure of the device housing box, and the device cooling member of the present invention are embodied will be described with reference to FIGS. In the following description, the same reference numerals are given to the same configurations as those of the already described embodiments, and the overlapping description is omitted or simplified.

  As shown in FIG. 7, the device storage box 50 of the third embodiment has a box body 51 made of a synthetic resin having a square box shape (not shown) opened on the front surface (one surface). 51, a metal equipment cooling member 61 integrated with 51 is provided. The box body 51 of the third embodiment is formed of a rectangular plate-shaped bottom wall 52 and a peripheral wall 53 erected from the periphery of the bottom wall 52, and the box body 51 contains one device K. It is formed in a size that can be accommodated. As shown in FIG. 8, the box body 51 includes a boss portion 54 and a bar material insertion portion 55 as in the first embodiment. The bottom wall 52 of the box body 51 is formed with a square hole-shaped through hole 52 a so as to open over substantially the entire bottom wall 52. In addition, attachment portions 52 b are recessed in the four corners of the bottom wall 52.

  As shown in FIG. 7, the device cooling member 61 has a heat transfer portion 63 having a rectangular flat plate shape, and the front surface of the heat transfer portion 63 is formed in a flat shape. In addition, a large number of fixing holes 63 b are recessed in the front surface of the heat transfer section 63. The device cooling member 61 includes a heat radiating portion 66 that protrudes from the periphery of the heat transfer portion 63. The heat radiating portion 66 has a rectangular plate shape, and the surface of the heat radiating portion 66 where the heat transfer portion 63 is not formed is formed into a flat surface. Further, attachment holes 66 b are formed at the four corners of the heat radiating portion 66.

  And as shown in FIG. 8, while inserting the heat-transfer part 63 in the through-hole 52a, the thermal radiation part 66 is made to contact | abut to the outer surface of the bottom wall 52, and also the attachment screw 17a is attached to the attachment part 52b from the attachment hole 66b. Forcibly. Then, the device cooling member 61 is attached (integrated) to the box body 51 and the device housing box 50 is formed. The equipment cooling member 61 is fixed to the box body 51 so that the heat transfer section 63 is along the inner surface of the bottom wall 32 (so as to be parallel). Further, the heat radiating portion 66 forms a part of the bottom of the box body 51.

  Then, the fixing screw 24 attached to the device K is forcibly screwed into the fixing hole 63 b to fix the device K to the heat transfer unit 63. In a state where the device housing box 50 is embedded in the concrete wall W, the heat radiating part 66 penetrates the bottom wall 52 and is exposed to the outside of the box body 51, and the entire rear surface of the heat radiating part 66 contacts the concrete wall W and heats it. Combined. Therefore, the apparatus K, the heat transfer part 63, the heat radiation part 66, and the concrete wall W are arrange | positioned on the same straight line, and the heat transfer path extended toward the concrete wall W from the apparatus K is formed.

Therefore, according to the third embodiment, the following effects can be obtained in addition to the effects similar to the effects described in (1) and (4) of the first embodiment.
(8) The heat radiating portion 66 is formed in a rectangular shape so as to form substantially the entire bottom of the box body 51. Therefore, the site | part thermally couple | bonded with respect to the concrete wall W can be made wide, and the heat | fever generate | occur | produced with the apparatus K can be discharge | released to the concrete wall W efficiently.

In addition, you may change this embodiment as follows.
As shown in FIG. 9, in the equipment cooling member 21 of the first embodiment, the heat transfer section 23 may be formed to be orthogonal to the upper surface of the heat dissipation section 26. When configured in this manner, the heat transfer section 23 is arranged in the box body 11 so as to extend along the inner surface of the peripheral wall 13 in the box body 11 in a state where the device cooling member 21 is integrated with the box body 11. .

  As shown in FIG. 10, in the first embodiment, in a state where the equipment cooling member 21 is attached to the box body 11, the front end surface of the heat radiating portion 26 is positioned on the same plane as the inner surface of the bottom wall 12. The length of the heat dissipating part 26 in the length direction may be shortened. In this case, the heat radiation part 26 is exposed to the concrete wall W through the through hole 12a and is thermally coupled to the concrete that has entered the through hole 12a.

  Note that “exposing the heat radiating part to the outside of the box main body” according to claim 1 means that the heat radiating parts 26, 46, 66 are directly connected to the heat radiating parts 26, 46, 66 from the through holes 12 a, 32 a, 52 a as in the respective embodiments. It means not only that it faces the outside of the main body 11, 31, 51, but also that it faces the box body 11, 31, 51 indirectly. For example, a through-hole is used as an entrance for concrete to enter, and a heat-dissipating part is provided so that the concrete entering from this entrance is thermally coupled to a heat-dissipating part arranged inward from the inner surface of the box body. Also good.

  As shown by a two-dot chain line in FIG. 10, the length of the heat radiating portion 26 in the length direction is such that the front end surface of the heat radiating portion 26 is the bottom wall 12 when the equipment cooling member 21 is attached to the box body 11. You may set so that it may be located in the position which retracted from the outer surface to the box body 11 inside.

  In the first embodiment, in the state where the length of the heat radiating portion 26 is extended and the heat radiating portion 26 is inserted into the through hole 12a, the front end surface of the heat radiating portion 26 is covered from the outer surface of the bottom wall 12. You may make it protrude outside the main body 11. FIG.

In each embodiment, the through holes 12a, 32a, 52a may be formed in the peripheral walls 13, 33, 53, and the device cooling members 21, 41, 61 may be attached to the peripheral walls 13, 33, 53.
The number of fixing holes 23b, 43b, 63b may be arbitrarily changed.

  ○ The fixing holes 23b, 43b, 63b of the heat transfer portions 23, 43, 63 may not be provided. In this case, the mounting screw 17a is forcibly screwed into the heat transfer portions 23, 43, 63, and the device K is transferred to the heat transfer portion. You may make it attach to 23,43,63. Therefore, the heat transfer parts 23, 43, 63 form a fixed part.

  In each embodiment, the fixing holes 23b, 43b, 63b may not be provided. And with respect to the apparatus K attached to the box main body 11,31,51 by the boss | hub parts 14 and 34 provided in the box main body 11,31,51, the heat-transfer part 23,43 of the apparatus cooling member 21,41,61. 63 may be thermally coupled.

  In the first or second embodiment, the cover member 13b of the peripheral wall 13 is removed to open the cable insertion hole 13a, and the heat radiating portions 26 and 46 are inserted into the cable insertion hole 13a so that the device cooling members 21 and 41 are You may attach to the box main bodies 11 and 31, and the cable penetration hole 13a functions as a through-hole in this case.

In each embodiment, the equipment cooling members 21, 41, 61 may be separate if the heat transfer parts 23, 43, 63 and the heat radiating parts 26, 46, 66 are thermally coupled.
○ The equipment housing boxes 10, 30, 50 are not fixed to the reinforcing bars T by the bar material 16 and embedded in the concrete wall W, but the heat radiation portions 26, 46, 66 of the equipment cooling members 21, 41, 61 are made of concrete. The device cooling members 21, 41, 61 may be fixed to the wall surface (outer surface) of the concrete wall W so as to contact the wall surface (outer surface) of the wall W.

  When the device housing boxes 10, 30, 50 are fixed to the wall surface of the concrete wall W, the heat radiating portion 26 in the device cooling member 21 is flush with the outer surface of the bottom wall 12, and the heat radiating portion 46 of the device cooling members 41, 61. , 66 protrudes outward from the outer surface of the bottom walls 32, 52. For this reason, the heat radiating portions 26, 46, 66 can be thermally coupled to the concrete wall W without embedding the device storage boxes 10, 30, 50 in the concrete wall W.

The device cooling members 21, 41, 61 may be made of copper.
The device cooling members 21, 41, 61 may be made of a synthetic resin having a higher thermal conductivity than vinyl chloride forming the box bodies 11, 31, 51. For example, the equipment cooling members 21, 41, 61 may be formed of a synthetic resin in which an additive for increasing thermal conductivity is added to vinyl chloride or polyphenylene sulfide (PPS).

  (Circle) the equipment storage boxes 10, 30, and 50 may be embed | buried or fixed to the concrete floor as a concrete frame.

The perspective view which shows the apparatus storage box and apparatus of 1st Embodiment. The perspective view which shows the apparatus cooling part of 1st Embodiment. The front view which shows the state which fixed the apparatus accommodation box to the reinforcing bar. FIG. 4 is a cross-sectional view taken along line 4-4 of FIG. The front view which shows the state which fixed the apparatus accommodation box of 2nd Embodiment to the reinforcing bar. FIG. 6 is a sectional view taken along line 6-6 in FIG. The disassembled perspective view which shows the apparatus storage box of 3rd Embodiment. Sectional drawing which shows the apparatus storage box inside of 3rd Embodiment. Sectional drawing which shows another example of an apparatus cooling member. Sectional drawing which shows another example of an apparatus cooling member.

Explanation of symbols

  K: equipment, W: concrete wall as a concrete frame, 10, 30, 50 ... equipment housing box, 11, 31, 51 ... box body, 12, 32, 52 ... bottom wall, 12a, 32a, 52a ... through hole, 13, 33, 53 ... peripheral wall, 21, 41, 61 ... equipment cooling member, 21a ... mounting hole, 23, 43, 63 ... heat transfer part, 23b, 43b, 63b ... fixing hole as fixing part, 26, 46, 66 ... A heat dissipation part.

Claims (10)

It has a box body made of a synthetic resin having a bottomed box shape that opens to one surface from a bottom wall and a peripheral wall standing up from the peripheral edge of the bottom wall, and an exothermic device is accommodated in the box body Equipment storage box,
A device cooling member made of a material that is integrated with the box body and has a higher thermal conductivity than the box body is provided, and the device cooling member is thermally coupled to the device to transmit heat generated from the device. A heat dissipating part that is thermally coupled to the heat transfer part and discharges heat from the heat transfer part to the outside of the box body;
Furthermore, the apparatus accommodation box in which the through-hole which exposes the said thermal radiation part out of the said box main body is formed in a part of said bottom wall or surrounding wall.   The device housing box according to claim 1, wherein the heat transfer section is formed in a size within a range in which heat generated from the device is transmitted.   The device housing box according to claim 1, wherein the heat transfer portion has a flat plate shape extending along an inner surface of the bottom wall or an inner surface of the peripheral wall.   The said heat-transfer part is an apparatus accommodation box as described in any one of Claims 1-3 arrange | positioned between the said apparatus and the inner surface of the said bottom wall, or the inner surface of a surrounding wall.   The device housing box according to any one of claims 1 to 4, wherein a fixing portion of the device is provided in the heat transfer unit.   The equipment housing box according to claim 5, wherein the fixing part is a plurality of fixing holes recessed in the heat transfer part.   The said heat radiating part is an apparatus accommodation box as described in any one of Claims 1-6 which protrudes out of the said box main body from the outer surface of the said bottom wall or the outer surface of a surrounding wall.   The said heat radiating part is an equipment storage box as described in any one of Claims 1-6 formed so that it may extend along the outer surface of the said bottom wall, or the outer surface of a surrounding wall. A device housing having a box body made of a synthetic resin having a box shape opened to one surface from a bottom wall and a peripheral wall erected from the peripheral edge of the bottom wall, and a heat generating device is housed in the box body The cooling structure of the box,
The device housing box is integrated with the box body and includes a device cooling member made of a material having a higher thermal conductivity than the box body, and the device cooling member is thermally coupled to the device from the device. A heat transfer portion through which heat generated is transmitted; and a heat dissipating portion that is integrated with the heat transfer portion and discharges heat from the heat transfer portion to the outside of the box body, and further, the bottom wall or the peripheral wall A through-hole that exposes the heat dissipation part to the outside of the box body is formed in a part of
A cooling structure for a device housing box, wherein the box body is fixed to an outer surface of the concrete box or embedded in the concrete box in a state where the heat radiating portion is thermally coupled to the concrete box. An equipment cooling member that is made of a synthetic resin having a bottomed box shape that opens to one surface from a bottom wall and a peripheral wall that is erected from the peripheral edge of the bottom wall, and that is integrated with a box body that contains a heat-generating equipment. Because
Made of a material with higher thermal conductivity than the box body,
A contact portion that contacts the inner surface of the bottom wall or the peripheral wall;
An attachment hole for attaching the device cooling member to the box body;
A fixing part to which the device is fixed;
A heat transfer section that is thermally coupled to the device fixed to the fixed portion and transmits heat generated from the device; and
A device cooling member having a heat radiating portion exposed to the outside of the box body through a through hole formed in a part of the bottom wall or the peripheral wall.

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