JP3165342U - Heat transfer cylinder - Google Patents

Heat transfer cylinder Download PDF

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JP3165342U
JP3165342U JP2010007193U JP2010007193U JP3165342U JP 3165342 U JP3165342 U JP 3165342U JP 2010007193 U JP2010007193 U JP 2010007193U JP 2010007193 U JP2010007193 U JP 2010007193U JP 3165342 U JP3165342 U JP 3165342U
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pipe
heat
outlet end
fluid inlet
shaped
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楊　泰和
泰和 楊
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楊　泰和
泰和 楊
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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24T—GEOTHERMAL COLLECTORS; GEOTHERMAL SYSTEMS
    • F24T10/00—Geothermal collectors
    • F24T10/10—Geothermal collectors with circulation of working fluids through underground channels, the working fluids not coming into direct contact with the ground
    • F24T10/13—Geothermal collectors with circulation of working fluids through underground channels, the working fluids not coming into direct contact with the ground using tube assemblies suitable for insertion into boreholes in the ground, e.g. geothermal probes
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24T—GEOTHERMAL COLLECTORS; GEOTHERMAL SYSTEMS
    • F24T10/00—Geothermal collectors
    • F24T10/10—Geothermal collectors with circulation of working fluids through underground channels, the working fluids not coming into direct contact with the ground
    • F24T10/13—Geothermal collectors with circulation of working fluids through underground channels, the working fluids not coming into direct contact with the ground using tube assemblies suitable for insertion into boreholes in the ground, e.g. geothermal probes
    • F24T10/15—Geothermal collectors with circulation of working fluids through underground channels, the working fluids not coming into direct contact with the ground using tube assemblies suitable for insertion into boreholes in the ground, e.g. geothermal probes using bent tubes; using tubes assembled with connectors or with return headers
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
    • F28D1/00—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators
    • F28D1/02—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid
    • F28D1/04—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits
    • F28D1/047—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits the conduits being bent, e.g. in a serpentine or zig-zag
    • F28D1/0472—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits the conduits being bent, e.g. in a serpentine or zig-zag the conduits being helically or spirally coiled
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
    • F28D1/00—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators
    • F28D1/02—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid
    • F28D1/04—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits
    • F28D1/047—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits the conduits being bent, e.g. in a serpentine or zig-zag
    • F28D1/0475—Heat-exchange apparatus having stationary conduit assemblies for one heat-exchange medium only, the media being in contact with different sides of the conduit wall, in which the other heat-exchange medium is a large body of fluid, e.g. domestic or motor car radiators with heat-exchange conduits immersed in the body of fluid with tubular conduits the conduits being bent, e.g. in a serpentine or zig-zag the conduits having a single U-bend
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
    • F28D20/00—Heat storage plants or apparatus in general; Regenerative heat-exchange apparatus not covered by groups F28D17/00 or F28D19/00
    • F28D20/0052—Heat storage plants or apparatus in general; Regenerative heat-exchange apparatus not covered by groups F28D17/00 or F28D19/00 using the ground body or aquifers as heat storage medium
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28F—DETAILS OF HEAT-EXCHANGE AND HEAT-TRANSFER APPARATUS, OF GENERAL APPLICATION
    • F28F13/00—Arrangements for modifying heat-transfer, e.g. increasing, decreasing
    • F28F2013/005—Thermal joints
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28F—DETAILS OF HEAT-EXCHANGE AND HEAT-TRANSFER APPARATUS, OF GENERAL APPLICATION
    • F28F2270/00—Thermal insulation; Thermal decoupling
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00—Energy generation through renewable energy sources
    • Y02E10/10—Geothermal energy
    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
    • Y02E60/14—Thermal energy storage

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Physics & Mathematics (AREA)
  • Thermal Sciences (AREA)
  • General Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Thermal Insulation (AREA)

Abstract

【課題】入口端近くの配管セグメントと出口端近くの配管セグメントとの間で熱伝導が行われるために起きる熱エネルギーの損失を低減可能な熱伝導シリンダーを提供する。【解決手段】熱伝導シリンダーは、蓄熱体５００の中に設置される。Ｕ型螺旋状配管８００の第１流体出入口端１０１と第２流体出入口端１０２との間にある螺旋配管セグメントは、螺旋状になっており、柱状熱伝導体３００の軸方向に沿って、柱状熱伝導体３００の辺縁近くに分布している。Ｕ型螺旋状管路８００とＵ型螺旋状管路８００の中心管路７００との間には、断熱構成４００が設けられている。【選択図】図１２An object of the present invention is to provide a heat transfer cylinder capable of reducing heat energy loss caused by heat transfer between a pipe segment near an inlet end and a pipe segment near an outlet end. A heat transfer cylinder is provided in a heat storage body. The spiral pipe segment between the first fluid inlet / outlet end 101 and the second fluid inlet / outlet end 102 of the U-shaped spiral pipe 800 has a spiral shape, and has a columnar shape along the axial direction of the columnar heat conductor 300. It is distributed near the edge of the heat conductor 300. A heat insulating structure 400 is provided between the U-shaped helical line 800 and the center line 700 of the U-shaped helical line 800. [Selection diagram] FIG.

Description

本考案は、温度差のある熱伝導流体が流れる熱伝導シリンダーに関する。   The present invention relates to a heat transfer cylinder through which a heat transfer fluid having a temperature difference flows.

従来のＵ型配管熱交換装置では、Ｕ型配管装置の流体入口端の配管セグメントと流体出口端の配管セグメントとは、同側に隣り合って設置されている。   In the conventional U-shaped piping heat exchange device, the piping segment at the fluid inlet end and the piping segment at the fluid outlet end of the U-shaped piping device are installed adjacent to each other on the same side.

このため、従来のＵ型配管熱交換装置のＵ型配管装置では、同側に隣り合っている流体入口端の配管セグメントと流体出口端の配管セグメントとの間に温度差がある流体が流れると、常に近すぎるために、温度差の熱伝導が行われてしまい、熱エネルギーが損失する。
本考案の目的は、入口端近くの配管セグメントと出口端近くの配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を低減可能な熱伝導シリンダーを提供することにある。 For this reason, in the U-shaped piping device of the conventional U-shaped piping heat exchange device, when a fluid having a temperature difference flows between the piping segment at the fluid inlet end and the piping segment at the fluid outlet end adjacent to each other on the same side However, since it is always too close, heat conduction of the temperature difference is performed, and heat energy is lost.
An object of the present invention is to provide a heat transfer cylinder capable of reducing a loss of heat energy caused by heat conduction between a pipe segment near an inlet end and a pipe segment near an outlet end.

本考案の熱伝導シリンダーは、一種の輻射状に熱エネルギーを互いに伝送するＵ型管である。具体的には、輻射状に熱エネルギーを互いに伝送するＵ型管のＵ型流体配管入口端及び／または出口端の配管セグメントを直接断熱材料により構成し、または二者の間に断熱構成を設置し、更に熱伝導材料により製作した熱伝導シリンダーを設置することにより構成される。
これにより、本考案の熱伝導シリンダーは、同側に隣り合って、温度差がある流体入口端の配管セグメントと流体出口端の配管セグメントとの間に、温度差がある流体が流れるとき、温度差の熱伝導が行われ、熱エネルギーの損失を避けることができる。 The heat conduction cylinder of the present invention is a U-shaped tube that transmits heat energy to each other in a kind of radiation. Specifically, the pipe segment at the inlet end and / or outlet end of the U-shaped fluid pipe that transmits heat energy to each other in a radiant manner is directly made of a heat insulating material, or a heat insulating structure is installed between the two. Furthermore, it is configured by installing a heat conduction cylinder made of a heat conduction material.
As a result, the heat conduction cylinder of the present invention is adjacent to the same side, and when a fluid having a temperature difference flows between the pipe segment at the fluid inlet end and the pipe segment at the fluid outlet end having a temperature difference, The heat transfer of the difference takes place and the loss of heat energy can be avoided.

（考案の効果）
本考案の熱伝導シリンダーは、浅層地表または池、湖、川、海洋等の自然蓄熱体または人工的に設置された固相、または気相、または液相物体により構成された蓄熱体（５００）の中に設置される。また、Ｕ型コアパイプ及びループパイプの流体入口端及び／または出口端の配管セグメントは、直接断熱材料により構成される。または、二者の間に断熱構成を設置し、本考案の熱伝導シリンダーが構成される。
これにより、配管に温度差がある熱伝導流体が流れるとき、同側に隣り合っている入口端の配管セグメントと出口端の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を避けることができる。 (Effect of device)
The heat conduction cylinder according to the present invention is a shallow surface or a natural heat storage body such as a pond, a lake, a river, or the ocean, or a solid state that is artificially installed, or a heat storage body composed of a gas phase or a liquid phase object (500 ). Further, the pipe segments at the fluid inlet end and / or outlet end of the U-shaped core pipe and loop pipe are made of a directly heat insulating material. Alternatively, a heat insulation structure is installed between the two to form the heat conduction cylinder of the present invention.
As a result, when a heat transfer fluid with a temperature difference in the pipe flows, heat energy loss occurs due to heat conduction between the pipe segment at the inlet end and the pipe segment at the outlet end that are adjacent on the same side. Can be avoided.

Ｕ型配管（１００）を蓄熱体（５００）に設置する、従来の形態を示す説明図。Explanatory drawing which shows the conventional form which installs U-shaped piping (100) in a thermal storage body (500). Ｕ型配管（１００）を柱状熱伝導体（３００）に設置し、かつ柱状熱伝導体（３００）に蓄熱体（５００）を設置する、従来の形態を示す説明図。Explanatory drawing which shows the conventional form which installs a U-shaped piping (100) in a columnar heat conductor (300), and installs a thermal storage body (500) in a columnar heat conductor (300). 熱伝導柱体の中に二個または二個以上の輻射状に配列するＵ型配管を設置し、その軸芯の近くに集中して同じ流向の配管群の外側に断熱構成を設置する、本考案の第１実施形態の説明図。Two or two or more radially arranged U-shaped pipes are installed in the heat conducting column, and a heat insulation structure is installed outside the pipe group with the same flow direction concentrated near the axis. Explanatory drawing of 1st Embodiment of invention. 図３の断面図。Sectional drawing of FIG. 複数のＵ型配管を共同して柱状熱伝導体（３００）のコアへ通じる所に設置し、相対的に大きな径の配管により共通配管（２００）の第１流体出入口端（１１０１）を構成する、本考案の第２実施形態の説明図。A plurality of U-shaped pipes are jointly installed at a place leading to the core of the columnar heat conductor (300), and the first fluid inlet / outlet end (1101) of the common pipe (200) is configured by a pipe having a relatively large diameter. Explanatory drawing of 2nd Embodiment of this invention. 図５の断面図。Sectional drawing of FIG. Ｕ型波状配管（６００）の第１流体出入口端（１０１）と第２流体出入口端（１０２）との間にある配管セグメントが波状になって、柱状熱伝導体（３００）の軸方向に沿って、辺縁の近くに分布する、本考案の第３実施形態の説明図。A pipe segment between the first fluid inlet / outlet end (101) and the second fluid inlet / outlet end (102) of the U-shaped corrugated pipe (600) is wavy, and extends along the axial direction of the columnar heat conductor (300). FIG. 6 is an explanatory diagram of a third embodiment of the present invention distributed near an edge. 図７の断面図。Sectional drawing of FIG. Ｕ型波状配管（６００）の第１流体出入口端（１０１）の配管セグメントを柱状熱伝導体（３００）中心の近くに設置し、第２流体出入口端（１０２）との間にある配管セグメントを柱状熱伝導体（３００）周辺の近くに設置し、二つの配管セグメントの間のＵ型波状配管（６００）が波状になって、柱状熱伝導体（３００）の軸方向に沿って、辺縁の近くに分布する、本考案の第４実施形態の説明図。The pipe segment at the first fluid inlet / outlet end (101) of the U-shaped corrugated pipe (600) is installed near the center of the columnar heat conductor (300), and the pipe segment between the second fluid inlet / outlet end (102) Installed near the periphery of the columnar heat conductor (300), the U-shaped corrugated pipe (600) between the two pipe segments becomes wavy, along the axial direction of the columnar heat conductor (300), Explanatory drawing of 4th Embodiment of this invention distributed near. 図９の断面図。Sectional drawing of FIG. Ｕ型螺旋状配管の第１流体出入口端（１０１）と第２流体出入口端（１０２）との間にある螺旋配管セグメントが螺旋状になって、柱状熱伝導体（３００）の軸方向に沿って、辺縁の近くに分布する、本考案の第５実施形態の説明図。A spiral pipe segment between the first fluid inlet / outlet end (101) and the second fluid inlet / outlet end (102) of the U-shaped spiral pipe spirals along the axial direction of the columnar heat conductor (300). The explanatory view of the fifth embodiment of the present invention distributed near the edge. 図１１の断面図。Sectional drawing of FIG.

以下、本考案の実施形態を図面に基づいて説明する。
（第１実施形態）
本考案の第１実施形態の熱伝導シリンダーは、浅層地表または池、湖、川、海洋等の自然蓄熱体または人工的に設置された固相、または気相、または液相物体により構成された蓄熱体５００の中に設置される。また、Ｕ型コアパイプ及びループパイプの流体入口端及び／または出口端の配管セグメントを直接断熱材料により構成される。または、二者の間に断熱構成を設置し、当該熱伝導シリンダーが構成される。
これにより、本実施形態の熱伝導シリンダーは、配管に温度差がある熱伝導流体が流れるとき、同側に隣り合っている入口端の配管セグメントと出口端の配管セグメントとの間に熱伝導が行われ、熱エネルギーの損失を避けることができる。 Embodiments of the present invention will be described below with reference to the drawings.
(First embodiment)
The heat conduction cylinder according to the first embodiment of the present invention is composed of a shallow surface layer or a natural heat storage body such as a pond, a lake, a river, or the ocean, an artificially installed solid phase, a gas phase, or a liquid phase object. The heat storage body 500 is installed. In addition, the pipe segments at the fluid inlet end and / or outlet end of the U-shaped core pipe and loop pipe are directly made of a heat insulating material. Alternatively, a heat insulation structure is installed between the two, and the heat conduction cylinder is configured.
As a result, when a heat transfer fluid having a temperature difference in the pipe flows, the heat transfer cylinder of the present embodiment has a heat transfer between the pipe segment at the inlet end and the pipe segment at the outlet end adjacent to the same side. Done and avoid loss of heat energy.

本実施形態の熱伝導シリンダーの各Ｕ型配管１００の中に、下記の少なくとも一種の熱伝導流体１１１が通過する。
１）液相流体。
２）気相流体。
３）液相から気相に変化する流体。
４）気相から液相に変化する流体。 The following at least one heat transfer fluid 111 passes through each U-shaped pipe 100 of the heat transfer cylinder of the present embodiment.
1) Liquid phase fluid.
2) Gas phase fluid.
3) A fluid that changes from a liquid phase to a gas phase.
4) Fluid that changes from gas phase to liquid phase.

ところで、従来のＵ型配管熱交換装置のＵ型配管装置は、同側に隣り合って設置される流体入口端の配管セグメントと流体出口端の配管セグメントとの間に、温度差がある流体が流れるとき、二者の間に常に温度差の熱伝導が行われ、熱エネルギーが損失する。下記に例を挙げて説明する。   By the way, in the U-shaped piping device of the conventional U-shaped piping heat exchange device, there is a fluid having a temperature difference between the piping segment at the fluid inlet end and the piping segment at the fluid outlet end installed adjacent to the same side. When flowing, there is always a temperature difference between the two, and heat energy is lost. An example will be described below.

まず、従来のＵ型配管１００を蓄熱体５００に設置する形態を図１に示す。
この場合、Ｕ型配管１００の第１流体出入口端１０１の配管セグメントと同側に隣り合って設置される第２流体出入口端１０２の近くの配管セグメントの熱伝導流体１１１との間に温度差があるとき、二者の間に熱伝導が行われ、熱エネルギーが損失する。 First, the form which installs the conventional U-shaped piping 100 in the thermal storage body 500 is shown in FIG.
In this case, there is a temperature difference between the heat transfer fluid 111 in the pipe segment near the second fluid inlet / outlet end 102 installed adjacent to the pipe segment at the first fluid inlet / outlet end 101 of the U-shaped pipe 100. At some point, heat conduction takes place between the two, and heat energy is lost.

次に、従来のＵ型配管１００を柱状熱伝導体３００に設置し、かつ柱状熱伝導体３００を蓄熱体５００の中に設置する形態を図２に示す。
この場合、柱状熱伝導体３００が、浅層地表または池、湖、川、海洋等の自然蓄熱体または人工的に設置された固相、または気相、または液相物体により構成された蓄熱体５００中に設置される。また、Ｕ型管の第１流体出入口端１０１と第２流体出入口端１０２を流れる熱伝導流体１１１との間に温度差があるとき、同側に隣り合って設置された第１流体出入口端１０１の近くの配管セグメントと第２流体出入口端１０２の近くの配管セグメントとの間に熱伝導が行われ、熱エネルギーが損失する。 Next, a configuration in which the conventional U-shaped pipe 100 is installed in the columnar heat conductor 300 and the columnar heat conductor 300 is installed in the heat storage body 500 is shown in FIG.
In this case, the columnar heat conductor 300 is a shallow surface or a natural heat storage body such as a pond, a lake, a river, or the ocean, or an artificially installed solid phase, a gas phase, or a heat storage body configured by a liquid phase object. 500 is installed. In addition, when there is a temperature difference between the first fluid inlet / outlet end 101 of the U-shaped pipe and the heat transfer fluid 111 flowing through the second fluid inlet / outlet end 102, the first fluid inlet / outlet end 101 installed adjacent to the same side. Heat conduction takes place between the piping segment near and the piping segment near the second fluid inlet / outlet end 102 and heat energy is lost.

これに対し、本考案の第１実施形態の熱伝導シリンダーは、一種の浅層地表または池、湖、川、海洋等の自然蓄熱体または人工的に設置された固相、または気相、または液相物体により構成された蓄熱体５００の中に設置される。
本実施形態の熱伝導シリンダーは、輻射状に熱エネルギーを互いに伝送するＵ型管であり、Ｕ型流体配管入口端及び／または出口端の配管セグメントを直接断熱材料により構成し、または二者の間に断熱構成を設置し、本実施形態の熱伝導シリンダーを構成することにより、配管に温度差がある熱伝導流体が流れるとき、同側に隣り合っている入口端の配管セグメントと出口端の配管セグメントとの間に熱伝導が行われ、熱エネルギーの損失を避ける。 On the other hand, the heat conduction cylinder of the first embodiment of the present invention is a kind of shallow surface or natural heat storage body such as a pond, lake, river, ocean, or artificially installed solid phase, or gas phase, or It installs in the thermal storage body 500 comprised with the liquid phase object.
The heat conduction cylinder of this embodiment is a U-shaped pipe that transmits heat energy to each other in a radiant manner, and the pipe segment at the inlet end and / or the outlet end of the U-shaped fluid pipe is directly formed of a heat insulating material, or By installing a heat insulation structure between them and configuring the heat conduction cylinder of this embodiment, when a heat conduction fluid with a temperature difference flows in the pipe, the pipe segment of the inlet end adjacent to the same side and the outlet end of the pipe Heat conduction takes place between the piping segments and avoids loss of thermal energy.

図３は、柱状熱伝導体の中に二個または二個以上の輻射状に配列するＵ型配管を設置し、またその軸芯の近くに集中して同じ流向の配管群の外側に断熱構成を設置する、本考案の第１実施形態の構成の説明図である。図４は図３の断面図である。図３及び図４の中の主な構成を下記に示す。   Fig. 3 shows two or more U-shaped pipes arranged radially in a columnar heat conductor, and is heat-insulated on the outside of a group of pipes with the same flow direction concentrated near the axis. It is explanatory drawing of a structure of 1st Embodiment of this invention which installs. 4 is a cross-sectional view of FIG. The main structure in FIG.3 and FIG.4 is shown below.

−−Ｕ型配管１００：熱伝導流体１１１を通過させるＵ型管状体により形成され、熱伝導流体１１１をその中に通過させる。Ｕ型配管１００は、固相物体または膠状物体により構成された柱状熱伝導体３００に設置される。各Ｕ型配管１００は第１流体出入口端１０１及び第２流体出入口端１０２を持つ。第１流体出入口端１０１の近くの配管セグメントを柱状熱伝導体３００のコアに集中して隣り合うように設置し、かつ第２流体出入口端１０２の近くの配管セグメントは、柱状熱伝導体３００の軸方向外側に沿って、辺縁の近く設置し、また輻射状に分布設置する。   --U-shaped pipe 100: formed of a U-shaped tubular body through which the heat transfer fluid 111 passes, and the heat transfer fluid 111 passes therethrough. The U-shaped pipe 100 is installed on a columnar heat conductor 300 formed of a solid phase object or a glue object. Each U-shaped pipe 100 has a first fluid inlet / outlet end 101 and a second fluid inlet / outlet end 102. A pipe segment near the first fluid inlet / outlet end 101 is installed so as to be concentrated and adjacent to the core of the columnar heat conductor 300, and a pipe segment near the second fluid inlet / outlet end 102 is connected to the columnar heat conductor 300. Install along the outside in the axial direction, near the edges, and in a radial distribution.

−−柱状熱伝導体３００：熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型配管１００及び断熱装置４００を被覆する。   -Columnar heat conductor 300: Constructed of a heat conductive material and formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped piping 100 And covering the heat insulating device 400.

−−断熱装置４００：断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成である。柱状熱伝導体３００の軸芯に集中して隣り合うように設置する各Ｕ型配管１００の第１流体出入口端１０１の近くの配管セグメントと各Ｕ型配管の第２流体出入口端１０２の近くの配管セグメントとの間に設置される。または、第１流体出入口端１０１の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作する。   --Insulating device 400: a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, or a foam, or an enclosed colloid, or a gas, a liquid, or a vacuum structure. A pipe segment near the first fluid inlet / outlet end 101 of each U-shaped pipe 100 installed so as to be concentrated and adjacent to the axis of the columnar heat conductor 300 and a vicinity of the second fluid inlet / outlet end 102 of each U-shaped pipe. Installed between piping segments. Alternatively, the pipe segment near the first fluid inlet / outlet end 101 is manufactured directly or by a heat insulating material or a jacket material of the heat insulating material.

上述の断熱構成を通して、同一Ｕ型配管１００の同じ側にある第１流体出入口端１０１の近くの配管セグメントと第２流体出入口端１０２の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を大幅に減少させることができる。   Heat generated due to heat conduction between the pipe segment near the first fluid inlet / outlet end 101 and the pipe segment at the second fluid inlet / outlet end 102 on the same side of the same U-shaped pipe 100 through the above-described thermal insulation configuration. Energy loss can be greatly reduced.

本実施形態の熱伝導シリンダーにおいて、複数のＵ型配管を共同して柱状熱伝導体３００の軸芯へ通じる所に設置し、相対的に大きな径の配管により共通配管２００の第１流体出入口端１１０１を構成し、かつ柱状熱伝導体３００の軸方向の周辺に沿って、輻射状に第２流体出入口端１０２を設置することができる。次に説明する。   In the heat conduction cylinder of this embodiment, a plurality of U-shaped pipes are jointly installed at a place leading to the axial core of the columnar heat conductor 300, and the first fluid inlet / outlet end of the common pipe 200 is formed by a relatively large diameter pipe. 1102 and the second fluid inlet / outlet end 102 can be installed radially along the periphery of the columnar heat conductor 300 in the axial direction. Next, a description will be given.

（第２実施形態）
図５は、複数のＵ型配管を共同して柱状熱伝導体３００のコアへ通じる所に設置し、相対的に大きな径の配管により共通配管２００の第１流体出入口端１１０１を構成する、本考案の第２実施形態の説明図である。図６は図５の断面図である。図５及び図６に主な構成を示す。本実施形態の主な構成は、次の通りである。 (Second Embodiment)
FIG. 5 shows a book in which a plurality of U-shaped pipes are jointly connected to the core of the columnar heat conductor 300 and the first fluid inlet / outlet end 1101 of the common pipe 200 is constituted by a pipe having a relatively large diameter. It is explanatory drawing of 2nd Embodiment of invention. 6 is a cross-sectional view of FIG. 5 and 6 show the main configuration. The main configuration of this embodiment is as follows.

本実施形態は、熱伝導流体１１１を通過する少なくとも二個のＵ型管状体１００により形成され、熱伝導流体１１１をその中に通過させ、各Ｕ型配管１００を固相物体、または膠状物体により構成された柱状熱伝導体３００に設置する。
各Ｕ型配管１００を共同して柱状熱伝導体３００の軸芯へ通じる所に設置し、相対的に大きな径の配管により構成された共通配管２００の第１流体出入口端１１０１を構成し、及び柱状熱伝導体３００の軸方向の周辺に沿って、輻射状に第２流体出入口端１０２及び配管セグメントを設置する。 The present embodiment is formed by at least two U-shaped tubular bodies 100 that pass through the heat transfer fluid 111, and the heat transfer fluid 111 is passed through the U-shaped pipes 100. It installs in the columnar heat conductor 300 comprised by these.
Each U-shaped pipe 100 is jointly installed at a location leading to the axis of the columnar heat conductor 300, and constitutes a first fluid inlet / outlet end 1101 of the common pipe 200 configured by a relatively large diameter pipe; and The second fluid inlet / outlet end 102 and the piping segment are installed radially along the periphery of the columnar heat conductor 300 in the axial direction.

上述の共通配管２００の第１流体出入口端１１０１に柱状熱伝導体３００の軸芯を設置し、また各Ｕ型配管１００と第２流体出入口端１０２の近くの配管セグメントとの間に断熱装置４００を設置し、かつ各組Ｕ型配管１００の第２流体出入口端１０２の近くの配管セグメントは、別々に柱状熱伝導体３００の軸方向の辺縁の近くに分布する。   The axial core of the columnar heat conductor 300 is installed at the first fluid inlet / outlet end 1101 of the common pipe 200 described above, and the heat insulating device 400 is provided between each U-shaped pipe 100 and a pipe segment near the second fluid inlet / outlet end 102. , And the pipe segments near the second fluid inlet / outlet end 102 of each U-shaped pipe 100 are separately distributed near the axial edge of the columnar heat conductor 300.

−−柱状熱伝導体３００：熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型配管１００及び断熱装置４００を被覆する。   -Columnar heat conductor 300: Constructed of a heat conductive material and formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped piping 100 And covering the heat insulating device 400.

−−断熱装置４００：断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成である。Ｕ型配管１００の第２流体出入口端１０２の近くの配管セグメントと共通配管２００の第１流体出入口端１１０１の近くの配管セグメントとの間に設置され、または第１流体出入口端１０１の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作する。   --Insulating device 400: a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, or a foam, or an enclosed colloid, or a gas, a liquid, or a vacuum structure. A pipe installed between the pipe segment near the second fluid inlet / outlet end 102 of the U-shaped pipe 100 and the pipe segment near the first fluid inlet / outlet end 1101 of the common pipe 200 or near the first fluid inlet / outlet end 101. The segments are made directly or by a heat insulating material or a jacket of heat insulating material.

上述の構成を通して、共通配管２００の第１流体出入口端１１０１の配管セグメントと第２流体出入口端１０２の配管セグメントとの間に、熱伝導が行われるために起きる熱エネルギーの損失を避けることができる。   Through the above-described configuration, it is possible to avoid the loss of thermal energy caused by heat conduction between the pipe segment of the first fluid inlet / outlet end 1101 and the pipe segment of the second fluid inlet / outlet end 102 of the common pipe 200. .

（第３実施形態）
図７は、Ｕ型波状配管６００の第１流体出入口端１０１と第２流体出入口端１０２との間にある配管セグメントが波状になって、柱状熱伝導体３００の軸方向に沿って、辺縁の近くに分布する、本考案の第３実施形態の説明図である。図８は図７の断面図である。図７及び図８に示したように、その主な構成は下記の通りである。 (Third embodiment)
FIG. 7 shows that the pipe segment between the first fluid inlet / outlet end 101 and the second fluid inlet / outlet end 102 of the U-shaped corrugated pipe 600 is wavy, along the axial direction of the columnar heat conductor 300. It is explanatory drawing of 3rd Embodiment of this invention distributed near. FIG. 8 is a cross-sectional view of FIG. As shown in FIGS. 7 and 8, the main configuration is as follows.

−−Ｕ型波状配管６００：熱伝導流体１１１を通過するＵ型波状管体により形成され、熱伝導流体１１１をその中に通過させる。Ｕ型波状配管６００は、固相物体、または膠状物体により構成された柱状熱伝導体３００に設置される。Ｕ型波状配管６００が、波状になって、柱状熱伝導体３００の軸方向の辺縁の近くに上下に波状に彎曲するように環設し、Ｕ型波状配管６００の二端は互いに連通する第１流体出入口端１０１及び第２流体出入口端１０２を持つことを特徴とする。   --U-shaped corrugated pipe 600: formed by a U-shaped corrugated pipe that passes through the heat transfer fluid 111, and allows the heat transfer fluid 111 to pass therethrough. The U-shaped corrugated pipe 600 is installed on a columnar heat conductor 300 formed of a solid phase object or a glue object. The U-shaped corrugated pipe 600 is formed in a corrugated shape so as to bend up and down near the axial edge of the columnar heat conductor 300, and the two ends of the U-shaped corrugated pipe 600 communicate with each other. It has a first fluid inlet / outlet end 101 and a second fluid inlet / outlet end 102.

−−柱状熱伝導体３００：熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型波状配管６００及び断熱装置４００を被覆する。   --- Columnar heat conductor 300: Constructed of a heat-conducting material and formed into a columnar shape having a cross-section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped corrugated piping 600 and the heat insulating device 400 are covered.

−−断熱装置４００：断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成である。柱状熱伝導体３００の軸芯に集中して隣り合うように設置するＵ型波状配管６００の第１流体出入口端１０１の近くの配管セグメントとＵ型波状配管６００の第２流体出入口端１０２の近くの配管セグメントとの間に設置され、または第１流体出入口端１０１の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作する。   --Insulating device 400: a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, or a foam, or an enclosed colloid, or a gas, a liquid, or a vacuum structure. A pipe segment near the first fluid inlet / outlet end 101 of the U-shaped corrugated pipe 600 and the second fluid inlet / outlet end 102 of the U-shaped corrugated pipe 600 installed near the axial center of the columnar heat conductor 300. Or a pipe segment near the first fluid inlet / outlet end 101 is made directly or by a heat insulating material or a jacket material of the heat insulating material.

上述の断熱構成を通して、同一Ｕ型波状配管６００の同じ側にある第１流体出入口端１０１の近くの配管セグメントと第２流体出入口端１０２の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を大幅に減少することができる。   This occurs because heat conduction is performed between the pipe segment near the first fluid inlet / outlet end 101 and the pipe segment at the second fluid inlet / outlet end 102 on the same side of the same U-shaped corrugated pipe 600 through the above-described heat insulation configuration. The loss of thermal energy can be greatly reduced.

（第４実施形態）
図９は、Ｕ型波状配管６００の第１流体出入口端１０１の配管セグメントを柱状熱伝導体３００中心の近くに設置し、第２流体出入口端１０２の間にある配管セグメントを柱状熱伝導体３００の周辺の近くに設置し、二つの配管セグメントの間のＵ型波状配管６００が波状になって、柱状熱伝導体３００に沿って、軸方向の辺縁の近くに分布する、本考案の第４実施形態の説明図である。図１０は図９の断面図である。図９及び図１０に示したように、その主な構成は下記の通りである。 (Fourth embodiment)
FIG. 9 shows that the pipe segment at the first fluid inlet / outlet end 101 of the U-shaped corrugated pipe 600 is installed near the center of the columnar heat conductor 300, and the pipe segment between the second fluid inlet / outlet ends 102 is the columnar heat conductor 300. The U-shaped corrugated pipe 600 between the two pipe segments is wavy and distributed along the columnar heat conductor 300 near the axial edge. It is explanatory drawing of 4 embodiment. 10 is a cross-sectional view of FIG. As shown in FIGS. 9 and 10, the main configuration is as follows.

−−Ｕ型波状配管６００：熱伝導流体１１１を通過するＵ型波状管体により形成され、熱伝導流体１１１をその中に通過させ、Ｕ型波状配管６００を固相物体、または膠状物体により構成された柱状熱伝導体３００に設置する。Ｕ型波状配管６００は、波状になって、柱状熱伝導体３００の軸方向の辺縁の近くに上下に波状に彎曲するように環設される。
Ｕ型波状配管６００の二端は互いに連通する第１流体出入口端１０１及び第２流体出入口端１０２を持ち、その中の第１流体出入口端１０１の配管セグメントを柱状熱伝導体３００中心の近くに設置し、第２流体出入口端１０２との間にある配管セグメントを柱状熱伝導体３００周辺の近くに設置する。そして、二つの配管セグメントの間のＵ型波状配管６００が波状になって、柱状熱伝導体３００に沿って、軸方向の辺縁の近くに分布することを特徴とする。 --U-shaped corrugated pipe 600: formed by a U-shaped corrugated pipe passing through the heat conducting fluid 111, allowing the heat conducting fluid 111 to pass therethrough, and the U-shaped corrugated pipe 600 to be formed of a solid phase object or a glue-like object. It installs in the comprised columnar heat conductor 300. FIG. The U-shaped corrugated pipe 600 is formed in a corrugated shape so as to bend up and down in the vicinity of the peripheral edge in the axial direction of the columnar heat conductor 300.
The two ends of the U-shaped corrugated pipe 600 have a first fluid inlet / outlet end 101 and a second fluid inlet / outlet end 102 communicating with each other, and the pipe segment of the first fluid inlet / outlet end 101 therein is located near the center of the columnar heat conductor 300. It installs and the piping segment between the 2nd fluid inlet-and-outlet ends 102 is installed near the columnar heat conductor 300 periphery. The U-shaped corrugated pipe 600 between the two pipe segments is wavy and distributed along the columnar heat conductor 300 near the edge in the axial direction.

−−柱状熱伝導体３００：熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型波状配管６００及び断熱装置４００を被覆する。   --- Columnar heat conductor 300: Constructed of a heat-conducting material and formed into a columnar shape having a cross-section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped corrugated piping 600 and the heat insulating device 400 are covered.

−−断熱装置４００：断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成である。柱状熱伝導体３００の軸芯に集中して隣り合うように設置するＵ型波状配管６００の第１流体出入口端１０１の近くの配管セグメントとＵ型波状配管６００の第２流体出入口端１０２の近くの配管セグメントとの間に設置され、または第１流体出入口端１０１の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作する。   --Insulating device 400: a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, or a foam, or an enclosed colloid, or a gas, a liquid, or a vacuum structure. A pipe segment near the first fluid inlet / outlet end 101 of the U-shaped corrugated pipe 600 and the second fluid inlet / outlet end 102 of the U-shaped corrugated pipe 600 installed near the axial center of the columnar heat conductor 300. Or a pipe segment near the first fluid inlet / outlet end 101 is made directly or by a heat insulating material or a jacket material of the heat insulating material.

上述の断熱構成を通して、同一Ｕ型波状配管６００の同じ側にある第１流体出入口端１０１の近くの配管セグメントと第２流体出入口端１０２の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を大幅に減少する。   This occurs because heat conduction is performed between the pipe segment near the first fluid inlet / outlet end 101 and the pipe segment at the second fluid inlet / outlet end 102 on the same side of the same U-shaped corrugated pipe 600 through the above-described heat insulation configuration. Significantly reduce heat energy loss.

（第５実施形態）
図１１は、Ｕ型螺旋状配管８００の第１流体出入口端１０１と第２流体出入口端１０２との間にある螺旋配管セグメントが螺旋状になって、柱状熱伝導体３００の軸方向に沿って、辺縁の近くに分布する、本考案の第５実施形態の説明図である。図１２は図１１の断面図である。図１１及び図１２に示したように、その主な構成は下記の通りである。 (Fifth embodiment)
FIG. 11 shows that the spiral pipe segment between the first fluid inlet / outlet end 101 and the second fluid inlet / outlet end 102 of the U-shaped spiral pipe 800 is spiraled along the axial direction of the columnar heat conductor 300. It is explanatory drawing of 5th Embodiment of this invention distributed near the edge. 12 is a cross-sectional view of FIG. As shown in FIGS. 11 and 12, the main configuration is as follows.

−−Ｕ型螺旋状配管８００：熱伝導流体１１１を通過するＵ型螺旋状管体により形成されることができ、熱伝導流体１１１をその中に通過させ、Ｕ型螺旋状配管８００を固相物体、または膠状物体により構成された柱状熱伝導体３００に設置する。Ｕ型螺旋状配管８００が螺旋状になって、柱状熱伝導体３００の軸方向の辺縁の近くに環設し、Ｕ型螺旋状配管８００の二端は互いに連通する第１流体出入口端１０１及び第２流体出入口端１０２を持ち、その中の第１流体出入口端１０１の配管セグメントを螺旋管構造の中心上端に設置し、かつＵ型螺旋状配管の中心配管７００を経て、直接Ｕ型螺旋状配管８００の底部へ通じ、また第２流体出入口端１０２をＵ型螺旋状配管８００が螺旋状になって、上へ向かってよじ登る上端に設置することを特徴とする。   --U-shaped spiral pipe 800: It can be formed by a U-shaped spiral tube passing through the heat transfer fluid 111, the heat transfer fluid 111 is passed through it, and the U-type spiral pipe 800 is solid-phased. It installs in the columnar heat conductor 300 comprised by the object or the glue-like object. The U-shaped spiral pipe 800 is spiraled and is provided near the axial edge of the columnar heat conductor 300, and the two ends of the U-shaped spiral pipe 800 communicate with each other. And the second fluid inlet / outlet end 102, the pipe segment of the first fluid inlet / outlet end 101 therein is installed at the center upper end of the spiral pipe structure, and passes through the central pipe 700 of the U-shaped spiral pipe, and directly into the U-shaped spiral. The second fluid inlet / outlet end 102 communicates with the bottom of the pipe-shaped pipe 800, and is installed at the upper end where the U-shaped spiral pipe 800 spirals up.

−−柱状熱伝導体３００：熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型螺旋状配管８００及び断熱装置４００を被覆する。   -Columnar heat conductor 300: Constructed of a heat conductive material and formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped spiral The pipe 800 and the heat insulating device 400 are covered.

−−断熱装置４００：断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成である。Ｕ型螺旋状配管８００を柱状熱伝導体３００の軸芯に設置し、上へ向かって第１流体出入口端１０１のＵ型螺旋状配管の中心配管７００の配管セグメントへ通じ、直接断熱材料または断熱材の外被材または断熱材料または断熱材の外被材により製作することができる。または、柱状熱伝導体３００の近くの辺縁に沿って、螺旋状になって、上方へよじ登り、流体第二出入口端１０２のＵ型螺旋状管路８００へ通じ、Ｕ型螺旋状管路８００の中心管路７００の管路段との間に断熱構成４００を設置する。   --Insulating device 400: a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, or a foam, or an enclosed colloid, or a gas, a liquid, or a vacuum structure. A U-shaped spiral pipe 800 is installed at the axial center of the columnar heat conductor 300, and leads upward to the pipe segment of the central pipe 700 of the U-shaped spiral pipe at the first fluid inlet / outlet end 101 to directly insulate the heat insulating material or the heat insulating material. It can be manufactured by a material covering material, a heat insulating material, or a heat insulating material covering material. Alternatively, it spirals along the edge near the columnar heat conductor 300, climbs upward, leads to the U-shaped spiral conduit 800 at the fluid second inlet / outlet end 102, and the U-shaped spiral conduit 800. The heat insulation structure 400 is installed between the central pipeline 700 and the pipeline stage.

上述の断熱構成４００を通して、同一Ｕ型螺旋状管路８００の底部中心に設置された中心管路７００と、流体第二出入口端１０２に通じるＵ型螺旋状管路８００との、二者の間に熱伝導が行われるために起きる熱エネルギーの損失を大幅に減少することができる。   Through the above-described heat insulation structure 400, the center pipe 700 installed at the center of the bottom of the same U-shaped spiral pipe 800 and the U-shaped spiral pipe 800 leading to the fluid second inlet / outlet end 102 are between the two. The loss of heat energy caused by heat conduction can be greatly reduced.

１００・・・Ｕ型配管
１０１・・・第１流体出入口端
１０２・・・第２流体出入口端
１１１・・・熱伝導流体
２００・・・共通配管
３００・・・柱状熱伝導体
４００・・・断熱装置
５００・・・蓄熱体
６００・・・Ｕ型波状配管
７００・・・Ｕ型螺旋状配管の中心配管
８００・・・Ｕ型螺旋状配管 DESCRIPTION OF SYMBOLS 100 ... U-shaped piping 101 ... 1st fluid inlet / outlet end 102 ... 2nd fluid inlet / outlet end 111 ... Heat conduction fluid 200 ... Common piping 300 ... Columnar heat conductor 400 ... Thermal insulation device 500 ... Heat storage body 600 ... U-shaped corrugated pipe 700 ... Central pipe of U-shaped spiral pipe 800 ... U-shaped spiral pipe

Claims (6)

浅層地表または池、湖、川、海洋等の自然蓄熱体または人工的に設置された固相、または気相、または液相物体により構成された蓄熱体（５００）の中に設置し、またＵ型コアパイプ及びループパイプの流体入口端及び／または出口端の配管セグメントを直接断熱材料により構成することにより、または二者の間に断熱構成を設置することにより、配管に温度差がある熱伝導流体が流れるとき、同側に隣り合っている入口端の配管セグメントと出口端の配管セグメントとの間に熱伝導が行われることにより起きる熱エネルギーの損失を低減する熱伝導シリンダーであって、
当該熱伝導シリンダーの各Ｕ型配管（１００）の中に、
１）液相流体、
２）気相流体、
３）液相から気相に変化する流体、
４）気相から液相に変化する流体、
のうち少なくとも一種の熱伝導流体（１１１）が通過することを特徴とする熱伝導シリンダー。 Installed in a shallow surface or a natural heat storage body such as a pond, lake, river, ocean, etc., or an artificial solid phase, or a heat storage body (500) composed of a gas phase or liquid phase object, and Heat transfer with temperature difference in the pipe by configuring the pipe segment at the fluid inlet end and / or outlet end of the U-shaped core pipe and loop pipe with the heat insulating material directly or by installing a heat insulating structure between the two. A heat transfer cylinder that reduces heat energy loss caused by heat conduction between a pipe segment at an inlet end and a pipe segment at an outlet end adjacent to each other when a fluid flows;
In each U-shaped pipe (100) of the heat conduction cylinder,
1) Liquid phase fluid,
2) gas phase fluid,
3) Fluid that changes from liquid phase to gas phase,
4) Fluid that changes from gas phase to liquid phase,
At least one kind of heat transfer fluid (111) passes through the heat transfer cylinder. 柱状熱伝導体の中に複数の輻射状に配列するＵ型配管を設置し、またその軸芯の近くに集中して同じ流向の配管群の外側に断熱構成を設置し、
Ｕ型配管（１００）は、熱伝導流体（１１１）を通過させるＵ型管状体により形成され、熱伝導流体（１１１）をその中に通過させ、Ｕ型配管（１００）を固相物体または膠状物体により構成された柱状熱伝導体（３００）に設置し、各Ｕ型配管（１００）は第１流体出入口端（１０１）及び第２流体出入口端（１０２）を持ち、また第１流体出入口端（１０１）の近くの配管セグメントを柱状熱伝導体（３００）のコアに集中して隣り合うように設置し、かつ第２流体出入口端（１０２）の近くの配管セグメントは、柱状熱伝導体（３００）の軸方向外側に沿って、辺縁の近く設置し、また輻射状に分布設置し、
柱状熱伝導体（３００）は、熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型配管（１００）及び断熱装置（４００）を被覆し、
断熱装置（４００）は、断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成であり、柱状熱伝導体（３００）の軸芯に集中して隣り合うように設置する各Ｕ型配管（１００）の第１流体出入口端（１０１）の近くの配管セグメントと各Ｕ型配管の第２流体出入口端（１０２）の近くの配管セグメントとの間に設置され、または第１流体出入口端（１０１）の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作し、
上述の断熱構成を通して、同一Ｕ型配管（１００）の同じ側にある第１流体出入口端（１０１）の近くの配管セグメントと第２流体出入口端（１０２）の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を低減することを特徴とする請求項１に記載の熱伝導シリンダー。 A plurality of U-shaped pipes arranged radially in a columnar heat conductor are installed, and a heat insulation structure is installed outside the pipe group having the same flow direction, concentrated near the axis.
The U-shaped pipe (100) is formed by a U-shaped tubular body that allows the heat transfer fluid (111) to pass therethrough, and the heat transfer fluid (111) is passed through the U-shaped pipe (100). Each U-shaped pipe (100) has a first fluid inlet / outlet end (101) and a second fluid inlet / outlet end (102), and is installed in a columnar heat conductor (300) constituted by a cylindrical object. The pipe segment near the end (101) is installed so as to be concentrated adjacent to the core of the columnar heat conductor (300), and the pipe segment near the second fluid inlet / outlet end (102) (300) Installed near the edge along the outside in the axial direction, and installed in a radial distribution,
The columnar heat conductor (300) is formed of a heat conductive material and is formed in a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped piping. (100) and the thermal insulation device (400),
The heat insulating device (400) is a heat insulating structure constituted by a solid, flexible body, foam, sealed colloid, gas, liquid, or vacuum structure having a heat insulating effect, and is a columnar heat conductor A pipe segment near the first fluid inlet / outlet end (101) of each U-shaped pipe (100) installed so as to be concentrated and adjacent to the axial center of (300) and a second fluid inlet / outlet end (102 of each U-shaped pipe Or a pipe segment near the first fluid inlet / outlet end (101) is manufactured directly or with a jacket material of a heat insulating material or a heat insulating material,
Through the above-described thermal insulation configuration, heat conduction between the pipe segment near the first fluid inlet / outlet end (101) on the same side of the same U-shaped pipe (100) and the pipe segment at the second fluid inlet / outlet end (102). 2. A heat transfer cylinder according to claim 1, characterized in that it reduces the loss of heat energy that occurs due to being performed. 複数のＵ型配管を柱状熱伝導体（３００）のコアへ通じる所に設置し、
相対的に大きな径の配管により共通配管（２００）の第１流体出入口端（１１０１）を構成し、
熱伝導流体（１１１）を通過する少なくとも二個のＵ型管状体（１００）により形成されることができ、熱伝導流体（１１１）をその中に通過させ、各Ｕ型配管（１００）を固相物体、または膠状物体により構成された柱状熱伝導体（３００）に設置し、各Ｕ型配管（１００）を共同して柱状熱伝導体（３００）の軸芯へ通じる所に設置し、相対的に大きな径の配管により構成された共通配管（２００）の第１流体出入口端（１１０１）を構成し、及び柱状熱伝導体（３００）の軸方向の周辺に沿って、輻射状に第２流体出入口端（１０２）及び配管セグメントを設置し、
上述の共通配管（２００）の第１流体出入口端（１１０１）に柱状熱伝導体（３００）の軸芯を設置し、また各Ｕ型配管（１００）と第２流体出入口端（１０２）の近くの配管セグメントとの間に断熱装置（４００）を設置し、かつ各組Ｕ型配管（１００）の第２流体出入口端（１０２）の近くの配管セグメントは、別々に柱状熱伝導体（３００）の軸方向の辺縁の近くに分布し、
柱状熱伝導体（３００）は、熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型配管（１００）及び断熱装置（４００）を被覆し、
断熱装置（４００）は、断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成であり、Ｕ型配管（１００）の第２流体出入口端（１０２）の近くの配管セグメントと共通配管（２００）の第１流体出入口端（１１０１）の近くの配管セグメントとの間に設置し、または第１流体出入口端（１０１）の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作し、
上述の構成を通して、共通配管（２００）の第１流体出入口端（１１０１）の配管セグメントと第２流体出入口端（１０２）の配管セグメントとの間に、熱伝導が行われるために起きる熱エネルギーの損失を低減することを特徴とする請求項１に記載の熱伝導シリンダー。 A plurality of U-shaped pipes are installed in a place leading to the core of the columnar heat conductor (300),
The first fluid inlet / outlet end (1101) of the common pipe (200) is constituted by a pipe having a relatively large diameter,
It can be formed by at least two U-shaped tubular bodies (100) that pass through the heat transfer fluid (111), the heat transfer fluid (111) is passed through it, and each U-shaped pipe (100) is fixed. It is installed in a columnar heat conductor (300) composed of a phase object or a glued object, and each U-shaped pipe (100) is installed in a place leading to the axis of the columnar heat conductor (300). The first fluid inlet / outlet end (1101) of the common pipe (200) constituted by a pipe having a relatively large diameter is configured, and the first radial direction is formed along the axial periphery of the columnar heat conductor (300). 2 Install the fluid inlet / outlet end (102) and the piping segment,
The axial core of the columnar heat conductor (300) is installed at the first fluid inlet / outlet end (1101) of the common pipe (200), and near each U-shaped pipe (100) and the second fluid inlet / outlet end (102). The pipe segment near the second fluid inlet / outlet end (102) of each U-shaped pipe (100) is separately provided with a columnar heat conductor (300). Distributed near the axial edge of
The columnar heat conductor (300) is formed of a heat conductive material and is formed in a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and U-shaped piping. (100) and the thermal insulation device (400),
The heat insulating device (400) is a heat insulating structure constituted by a solid having a heat insulating effect, a flexible body, a foam, an enclosed colloid, a gas, a liquid, or a vacuum structure. 100) between the pipe segment near the second fluid inlet / outlet end (102) and the pipe segment near the first fluid inlet / outlet end (1101) of the common pipe (200), or the first fluid inlet / outlet end ( 101) and the pipe segment near it is manufactured directly or with a jacket of insulation material or insulation material,
Through the above configuration, the heat energy generated due to heat conduction between the pipe segment of the first fluid inlet / outlet end (1101) and the pipe segment of the second fluid inlet / outlet end (102) of the common pipe (200). The heat conduction cylinder according to claim 1, wherein loss is reduced. Ｕ型波状配管（６００）の第１流体出入口端（１０１）と第２流体出入口端（１０２）との間にある配管セグメントが波状であり、柱状熱伝導体（３００）の軸方向に沿って、辺縁の近くに分布し、
Ｕ型波状配管（６００）は、熱伝導流体（１１１）を通過するＵ型波状管体により形成され、熱伝導流体（１１１）をその中に通過させ、固相物体、または膠状物体により構成された柱状熱伝導体（３００）に設置され、波状になって、柱状熱伝導体（３００）の軸方向の辺縁の近くに上下に波状に彎曲するように環設され、
Ｕ型波状配管（６００）の二端は互いに連通する第１流体出入口端（１０１）及び第２流体出入口端（１０２）を持つことを特徴とし、
柱状熱伝導体（３００）は、熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型波状配管（６００）及び断熱装置（４００）を被覆し、
断熱装置（４００）は、断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成であり、柱状熱伝導体（３００）の軸芯に集中して隣り合うように設置するＵ型波状配管（６００）の第１流体出入口端（１０１）の近くの配管セグメントとＵ型波状配管（６００）の第２流体出入口端（１０２）の近くの配管セグメントとの間に設置され、または第１流体出入口端（１０１）の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作し、
上述の断熱構成を通して、同一Ｕ型波状配管（６００）の同じ側にある第１流体出入口端（１０１）の近くの配管セグメントと第２流体出入口端（１０２）の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を低減するとともに、
上述の断熱構成が大幅に減らされて設置される同一Ｕ型波状配管（６００）同側の近くの第１流体出入口端（１０１）の配管セグメントと第２流体出入口端（１０２）の配管セグメントとの間で起きる熱伝導による熱エネルギーの損失を低減することを特徴とする請求項１に記載の熱伝導シリンダー。 A pipe segment between the first fluid inlet / outlet end (101) and the second fluid inlet / outlet end (102) of the U-shaped corrugated pipe (600) is corrugated, and extends along the axial direction of the columnar heat conductor (300). , Distributed near the edge,
The U-shaped corrugated pipe (600) is formed by a U-shaped corrugated pipe that passes through the heat conduction fluid (111), and the heat conduction fluid (111) is passed through the U-shaped corrugated pipe (600) to form a solid phase object or a glue-like object. Installed in the columnar heat conductor (300), it is wavy, and is circularly installed so as to bend up and down near the axial edge of the columnar heat conductor (300).
The two ends of the U-shaped corrugated pipe (600) have a first fluid inlet / outlet end (101) and a second fluid inlet / outlet end (102) communicating with each other,
The columnar heat conductor (300) is formed of a heat conductive material and is formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and a U-shaped wave shape. Covering the pipe (600) and the heat insulation device (400);
The heat insulating device (400) is a heat insulating structure constituted by a solid, flexible body, foam, sealed colloid, gas, liquid, or vacuum structure having a heat insulating effect, and is a columnar heat conductor A pipe segment near the first fluid inlet / outlet end (101) of the U-shaped corrugated pipe (600) and the second fluid inlet / outlet of the U-shaped corrugated pipe (600) installed so as to be concentrated on and adjacent to the axial center of (300). Installed between the pipe segment near the end (102) or the pipe segment near the first fluid inlet / outlet end (101) directly or by means of an insulating material or a jacket of insulating material;
Through the thermal insulation configuration described above, heat conduction between a pipe segment near the first fluid inlet / outlet end (101) on the same side of the same U-shaped corrugated pipe (600) and a pipe segment at the second fluid inlet / outlet end (102). While reducing the loss of thermal energy caused by
A pipe segment of the first fluid inlet / outlet end (101) and a pipe segment of the second fluid inlet / outlet end (102) near the same side of the same U-shaped corrugated pipe (600) installed with the above-described heat insulation configuration greatly reduced; The heat conduction cylinder according to claim 1, wherein loss of heat energy due to heat conduction occurring between the heat conduction cylinders is reduced. Ｕ型波状配管（６００）の第１流体出入口端（１０１）の配管セグメントを柱状熱伝導体（３００）中心の近くに設置し、第２流体出入口端（１０２）の間にある配管セグメントを柱状熱伝導体（３００）の周辺の近くに設置し、二つの配管セグメントの間のＵ型波状配管（６００）が波状になって、柱状熱伝導体（３００）に沿って、軸方向の辺縁の近くに分布し、
Ｕ型波状配管（６００）は、熱伝導流体（１１１）を通過するＵ型波状管体により形成され、熱伝導流体（１１１）をその中に通過させ、固相物体、または膠状物体により構成された柱状熱伝導体（３００）に設置され、波状であり、柱状熱伝導体（３００）の軸方向の辺縁の近くに上下に波状に彎曲するように環設され、
Ｕ型波状配管（６００）の二端は互いに連通する第１流体出入口端（１０１）及び第２流体出入口端（１０２）を持ち、その中の第１流体出入口端（１０１）の配管セグメントは、柱状熱伝導体（３００）中心の近くに設置され、第２流体出入口端（１０２）との間にある配管セグメントは、柱状熱伝導体（３００）周辺の近くに設置され、二つの配管セグメントの間のＵ型波状配管（６００）が波状になって、柱状熱伝導体（３００）に沿って、軸方向の辺縁の近くにに分布することを特徴とし、
柱状熱伝導体（３００）は、熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型波状配管（６００）及び断熱装置（４００）を被覆し、
断熱装置（４００）は、断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成であり、柱状熱伝導体（３００）の軸芯に集中して隣り合うように設置するＵ型波状配管（６００）の第１流体出入口端（１０１）の近くの配管セグメントとＵ型波状配管（６００）の第２流体出入口端（１０２）の近くの配管セグメントとの間に設置され、または第１流体出入口端（１０１）の近くの配管セグメントを直接または断熱材料または断熱材の外被材により製作し、
上述の断熱構成を通して、同一Ｕ型波状配管（６００）の同じ側にある第１流体出入口端（１０１）の近くの配管セグメントと第２流体出入口端（１０２）の配管セグメントとの間に熱伝導が行われるために起きる熱エネルギーの損失を低減することを特徴とする請求項１に記載の熱伝導シリンダー。 The pipe segment at the first fluid inlet / outlet end (101) of the U-shaped corrugated pipe (600) is installed near the center of the columnar heat conductor (300), and the pipe segment between the second fluid inlet / outlet end (102) is columnar. Installed near the periphery of the heat conductor (300), the U-shaped corrugated pipe (600) between the two pipe segments becomes wavy, along the columnar heat conductor (300), the axial edge Distributed near
The U-shaped corrugated pipe (600) is formed by a U-shaped corrugated pipe that passes through the heat conduction fluid (111), and the heat conduction fluid (111) is passed through the U-shaped corrugated pipe (600) to form a solid phase object or a glue-like object. Installed in the columnar heat conductor (300), and is wavy, and is provided so as to bend up and down in the shape of a wave near the axial edge of the columnar heat conductor (300),
The two ends of the U-shaped corrugated pipe (600) have a first fluid inlet / outlet end (101) and a second fluid inlet / outlet end (102) communicating with each other, and a pipe segment of the first fluid inlet / outlet end (101) therein is: A pipe segment installed near the center of the columnar heat conductor (300) and between the second fluid inlet / outlet end (102) is installed near the periphery of the columnar heat conductor (300), and the two pipe segments The U-shaped corrugated pipe (600) in between is wavy and distributed near the edges in the axial direction along the columnar heat conductor (300),
The columnar heat conductor (300) is formed of a heat conductive material and is formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and a U-shaped wave shape. Covering the pipe (600) and the heat insulation device (400);
The heat insulating device (400) is a heat insulating structure constituted by a solid, flexible body, foam, sealed colloid, gas, liquid, or vacuum structure having a heat insulating effect, and is a columnar heat conductor A pipe segment near the first fluid inlet / outlet end (101) of the U-shaped corrugated pipe (600) and the second fluid inlet / outlet of the U-shaped corrugated pipe (600) installed so as to be concentrated on and adjacent to the axis of (300). Installed between the pipe segment near the end (102) or the pipe segment near the first fluid inlet / outlet end (101) directly or by means of an insulating material or a jacket of insulating material;
Through the thermal insulation configuration described above, heat conduction between a pipe segment near the first fluid inlet / outlet end (101) on the same side of the same U-shaped corrugated pipe (600) and a pipe segment at the second fluid inlet / outlet end (102). The heat transfer cylinder according to claim 1, wherein a loss of heat energy caused by the operation is reduced. Ｕ型螺旋状配管の第１流体出入口端（１０１）と第２流体出入口端（１０２）との間にある螺旋配管セグメントが螺旋状になって、柱状熱伝導体（３００）の軸方向に沿って、辺縁の近くに分布し、Ｕ型螺旋状配管（８００）、柱状熱伝導体（３００）、断熱装置（４００）を備え、
Ｕ型螺旋状配管（８００）は、熱伝導流体（１１１）を通過するＵ型螺旋状管体により形成され、熱伝導流体（１１１）をその中に通過させ、固相物体、または膠状物体により構成された柱状熱伝導体（３００）に設置され、螺旋状になって、柱状熱伝導体（３００）の軸方向の辺縁の近くに環設され、
Ｕ型螺旋状配管（８００）の二端は互いに連通する第１流体出入口端（１０１）及び第２流体出入口端（１０２）を持ち、その中の第１流体出入口端（１０１）の配管セグメントは、螺旋管構造の中心上端に設置され、かつＵ型螺旋状配管（８００）の中心配管（７００）を経て、直接Ｕ型螺旋状配管（８００）の底部へ通じ、第２流体出入口端（１０２）は、Ｕ型螺旋状配管（８００）が螺旋状になって、上へ向かってよじ登る上端に設置され、
柱状熱伝導体（３００）は、熱伝導材料により構成され、かつ円形、または橢円形、または正方形、または長方形、または星形等の各種幾何形状の断面である柱状に構成され、かつＵ型螺旋状配管（８００）及び断熱装置（４００）を被覆し、
断熱装置（４００）は、断熱効果を持つ固体、または可撓体、または発泡体、または封入されたコロイド、または気体、または液体、または真空構造により構成される断熱構成であり、
Ｕ型螺旋状配管（８００）を柱状熱伝導体（３００）の軸芯に設置し、上へ向かって第１流体出入口端（１０１）のＵ型螺旋状配管の中心配管（７００）の配管セグメントへ通じ、直接断熱材料または断熱材の外被材または断熱材料または断熱材の外被材により製作可能で、または柱状熱伝導体（３００）の近くの辺縁に沿って、螺旋状になって、上方へよじ登り、流体第二出入口端（１０２）のＵ型螺旋状管路（８００）へ通じ、Ｕ型螺旋状管路の中心管路（７００）の管路段との間に断熱構成（４００）を設置し、
上述の断熱構成（４００）を通して、同一Ｕ型螺旋状管路（８００）の底部中心に設置し、上へ向かって流体第一出入口端（１０１）のＵ型螺旋状管路の中心管路（７００）へ通じ、二者の間に熱伝導が行われるために起きる熱エネルギーの損失を低減することを特徴とする請求項１に記載の熱伝導シリンダー。 A spiral pipe segment between the first fluid inlet / outlet end (101) and the second fluid inlet / outlet end (102) of the U-shaped spiral pipe spirals along the axial direction of the columnar heat conductor (300). Distributed near the edge, comprising a U-shaped spiral pipe (800), a columnar heat conductor (300), a heat insulating device (400),
The U-shaped spiral pipe (800) is formed by a U-shaped spiral tube that passes through the heat transfer fluid (111), and allows the heat transfer fluid (111) to pass through the solid pipe or glue-like object. It is installed in the columnar heat conductor (300) constituted by the above, spiraled, and installed near the axial edge of the columnar heat conductor (300),
The two ends of the U-shaped spiral pipe (800) have a first fluid inlet / outlet end (101) and a second fluid inlet / outlet end (102) communicating with each other, and a pipe segment of the first fluid inlet / outlet end (101) therein is The second fluid inlet / outlet end (102) is installed at the center upper end of the spiral tube structure and directly passes through the center pipe (700) of the U-shaped spiral pipe (800) to the bottom of the U-shaped spiral pipe (800). ) Is installed at the upper end where the U-shaped spiral pipe (800) spirals up and climbs upward,
The columnar heat conductor (300) is formed of a heat conductive material and is formed into a columnar shape having a cross section of various geometric shapes such as circular, oval, square, rectangular, or star shape, and a U-shaped spiral. Covering the pipe (800) and the heat insulating device (400),
The heat insulating device (400) is a heat insulating structure constituted by a solid having a heat insulating effect, or a flexible body, or a foam, or an enclosed colloid, or a gas, or a liquid, or a vacuum structure.
A pipe segment of the central pipe (700) of the U-shaped spiral pipe of the first fluid inlet / outlet end (101) is installed on the axis of the columnar heat conductor (300) with the U-shaped spiral pipe (800). Can be made directly from the insulation material or insulation jacket or insulation or insulation jacket, or spiraled along the edge near the columnar heat conductor (300) Climbing upward, leading to the U-shaped spiral conduit (800) of the fluid second inlet / outlet end (102), and between the conduit stages of the central conduit (700) of the U-shaped spiral conduit (400 )
Through the above-described heat insulation configuration (400), the center of the bottom of the same U-shaped spiral pipe (800) is installed, and the center pipe of the U-shaped spiral pipe of the first fluid inlet / outlet end (101) ( 700), and reduces heat energy loss caused by heat conduction between the two.
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CN109654768A (en) * 2018-11-23 2019-04-19 重庆交通大学 A kind of underground pipe for soil source heat pump
JP2020024087A (en) * 2013-06-26 2020-02-13 楊　泰和 Heat radiator

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KR100780460B1 (en) * 2006-10-27 2007-11-29 주식회사 국민에너지 The cooling and heating system of economic type by heatpumps

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JP2020024087A (en) * 2013-06-26 2020-02-13 楊　泰和 Heat radiator
CN109654768A (en) * 2018-11-23 2019-04-19 重庆交通大学 A kind of underground pipe for soil source heat pump

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