JP2012033685A5 - - Google Patents

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JP2012033685A5
JP2012033685A5 JP2010171632A JP2010171632A JP2012033685A5 JP 2012033685 A5 JP2012033685 A5 JP 2012033685A5 JP 2010171632 A JP2010171632 A JP 2010171632A JP 2010171632 A JP2010171632 A JP 2010171632A JP 2012033685 A5 JP2012033685 A5 JP 2012033685A5
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pipe
cup
generation device
power generation
hole
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積層方向に貫通する貫通孔を内部に有するよう、金属と熱電材料が交互に積層され、前記貫通孔の貫通方向に平行な断面において、前記貫通方向に対して、前記金属と熱電材料の積層面が傾斜している積層体を用意する第1工程と、
前記金属と前記熱電材料を接合する第2工程と、
前記積層体の両端に第1電極と第2電極とを配置する第3工程と、
を具備する、熱発電デバイスの製造方法。 Metals and thermoelectric materials are alternately laminated so as to have through holes penetrating in the laminating direction, and in a cross section parallel to the through direction of the through holes, the metal and thermoelectric material laminated surface with respect to the through direction. A first step of preparing a laminated body having a slope;
A second step of joining the metal and the thermoelectric material;
A third step of disposing a first electrode and a second electrode at both ends of the laminate;
A method for manufacturing a thermoelectric power generation device. 前記第2工程を前記第1工程と共に行う、請求項１に記載の熱発電デバイスの製造方法。 The method for manufacturing a thermoelectric power generation device according to claim 1, wherein the second step is performed together with the first step. 前記金属および熱電材料が、内側面、外側面および貫通孔の軸に対して一定の角度を有する2つのテーパー面からなる、請求項２に記載の熱発電デバイスの製造方法。 The method for manufacturing a thermoelectric generation device according to claim 2, wherein the metal and the thermoelectric material include two tapered surfaces having a certain angle with respect to the inner surface, the outer surface, and the axis of the through hole. 前記積層された金属と熱電材料の塑性加工を行うことで、前記第2工程を前記第1工程と共に行う、請求項１または２に記載の熱発電デバイスの製造方法。 The method for manufacturing a thermoelectric power generation device according to claim 1 or 2, wherein the second step is performed together with the first step by performing plastic working of the laminated metal and the thermoelectric material. 積層方向に貫通する貫通孔を内部に有するよう、金属と熱電材料が交互に積層され、前記貫通孔の貫通方向に平行な断面において、前記貫通方向に対して、前記金属と熱電材料と傾斜している積層体を用意する工程と、
前記金属と前記熱電材料を接合する工程と、
を具備する、熱発電デバイスの積層体の製造方法。 The metal and the thermoelectric material are alternately laminated so as to have a through hole penetrating in the stacking direction, and the metal and the thermoelectric material are inclined with respect to the through direction in a cross section parallel to the through direction of the through hole. Preparing a laminated body,
Bonding the metal and the thermoelectric material;
The manufacturing method of the laminated body of the thermoelectric power generation device which comprises this. 積層方向に貫通する貫通孔を内部に有し、前記貫通孔の貫通方向に平行な断面において、
前記貫通方向に対して、積層面が傾斜している金属を、前記積層方向に空間を設けて積層する工程と、
前記空間に熱電材料を充填する工程と、
前記積層体の両端に第１電極と第２電極とを配置する工程と、
を具備する、熱発電デバイスの製造方法。 It has a through hole that penetrates in the stacking direction inside, and in a cross section parallel to the through direction of the through hole,
A step of laminating a metal whose laminating surface is inclined with respect to the penetrating direction by providing a space in the laminating direction;
Filling the space with a thermoelectric material;
Disposing a first electrode and a second electrode on both ends of the laminate;
A method for manufacturing a thermoelectric power generation device. パイプ型熱発電デバイスの製造方法であって、  A method for manufacturing a pipe-type thermoelectric power generation device, comprising:
下端に第１貫通孔を有し、その下端の方向に断面積が減少する、金属からなる複数の第１カップ状部材と、下端に第２貫通孔を有し、その下端の方向に断面積が減少する、熱電材料からなる複数の第２カップ状部材とを交互に繰り返し配置することにより、複数の第１貫通孔および複数の第２貫通孔から構成される内部貫通孔を有するパイプを形成する工程（ａ）と、  A plurality of first cup-shaped members made of metal having a first through hole at the lower end and a cross-sectional area decreasing in the direction of the lower end, and a second through hole at the lower end and having a cross-sectional area in the direction of the lower end A pipe having an internal through-hole composed of a plurality of first through-holes and a plurality of second through-holes is formed by alternately and repeatedly arranging a plurality of second cup-shaped members made of thermoelectric materials. Step (a) to perform,
前記パイプを、前記パイプの長手方向に沿って前記パイプが圧縮される方向に圧力を印加しながら焼結することにより、積層体を形成する工程（ｂ）と、  (B) forming a laminate by sintering the pipe while applying pressure in a direction in which the pipe is compressed along the longitudinal direction of the pipe;
前記積層体の一端に第１電極を、他端に第２電極を配置することにより、パイプ型熱発電デバイスを形成する工程（ｃ）と、  (C) forming a pipe-type thermoelectric power generation device by disposing a first electrode on one end of the laminate and a second electrode on the other end;
を有するパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device. 工程（ａ）において、前記パイプは、  In step (a), the pipe is
第１内面および第１外面を有する複数の前記第１カップ状部材と、第２内面および第２外面を有する複数の前記第２カップ状部材とを、    A plurality of the first cup-shaped members having a first inner surface and a first outer surface; and a plurality of the second cup-shaped members having a second inner surface and a second outer surface;
各第１カップ状部材が、各第１カップ状部材の第１外面が隣接する一方の第２カップ状部材の第２内面に接するように、隣接する一方の第２カップ状部材に挿入され、    Each first cup-shaped member is inserted into one adjacent second cup-shaped member such that the first outer surface of each first cup-shaped member is in contact with the second inner surface of one second cup-shaped member adjacent to each other,
前記隣接する他方の第２カップ状部材が、各第１カップ状部材の第１内面が隣接する他方の第２カップ状部材の第２外面に接するように、各第１カップ状部材に挿入されることにより形成される、    The other adjacent second cup-shaped member is inserted into each first cup-shaped member such that the first inner surface of each first cup-shaped member is in contact with the second outer surface of the other adjacent second cup-shaped member. Formed by
請求項７に記載のパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device according to claim 7. パイプ型熱発電デバイスの製造方法であって、  A method for manufacturing a pipe-type thermoelectric power generation device, comprising:
第１貫通孔を有し、金属からなる複数の第１平板状部材と、第２貫通孔を有し、熱電材料からなる複数の第２平板状部材とを交互に繰り返し配置することにより、複数の第１貫通孔および複数の第２貫通孔から構成される内部貫通孔を有するパイプを準備する工程（ｄ）と、  A plurality of first flat plate members having a first through hole and made of metal and a plurality of second flat plate members having a second through hole and made of a thermoelectric material are alternately arranged. A step (d) of preparing a pipe having an internal through hole composed of the first through hole and the plurality of second through holes;
前記パイプを焼結する間、前記パイプの長手方向に沿って前記パイプが圧縮される方向と同時に、前記パイプの長手方向に沿って前記内部貫通孔の中心が押し出される方向または引き抜かれる方向に圧力を印加することにより、積層体を形成する工程（ｅ）と、  While sintering the pipe, pressure is applied in the direction in which the center of the internal through hole is pushed out or pulled out along the longitudinal direction of the pipe, simultaneously with the direction in which the pipe is compressed along the longitudinal direction of the pipe. A step (e) of forming a laminate by applying
前記積層体の一端に第１電極を、他端に第２電極を配置することにより、パイプ型熱発電デバイスを形成する工程（ｆ）と、  A step (f) of forming a pipe-type thermoelectric power generation device by disposing a first electrode on one end of the laminate and a second electrode on the other end;
を有するパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device. 工程（ｅ）において、前記パイプを構成する第１平板状部材および第２平板状部材の各接合面が前記パイプの長手方向に沿って傾斜する、前記積層体が形成される、  In the step (e), the laminated body is formed in which the joining surfaces of the first flat plate member and the second flat plate member constituting the pipe are inclined along the longitudinal direction of the pipe.
請求項９に記載のパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device according to claim 9. パイプ型熱発電デバイスの製造方法であって、  A method for manufacturing a pipe-type thermoelectric power generation device, comprising:
第１貫通孔を有し、金属からなる複数の第１平板状部材と、第２貫通孔を有し、熱電材料からなる複数の第２平板状部材とを交互に繰り返し配置することにより、複数の第１貫通孔および複数の第２貫通孔から構成される内部貫通孔を有するパイプを準備する工程（ｇ）と、  A plurality of first flat plate members having a first through hole and made of metal and a plurality of second flat plate members having a second through hole and made of a thermoelectric material are alternately arranged. A step (g) of preparing a pipe having an internal through-hole composed of the first through-hole and a plurality of second through-holes;
前記パイプを焼結する間、前記パイプの長手方向に沿って前記パイプが圧縮される方向に圧力を印加することにより、第１積層体を形成する工程（ｈ）と、  Forming a first laminate by applying pressure in a direction in which the pipe is compressed along the longitudinal direction of the pipe while the pipe is sintered (h);
前記第１積層体を塑性加工する間、前記パイプの長手方向に沿って前記内部貫通孔の中心が押し出されるまたは引き抜かれる方向に圧力を印加することにより、第２積層体を形成する工程（ｉ）と、  A step of forming a second laminate by applying pressure in a direction in which the center of the internal through-hole is pushed out or pulled out along the longitudinal direction of the pipe during plastic processing of the first laminate (i) )When,
前記第２積層体の一端に第１電極を、他端に第２電極を配置することにより、パイプ型熱発電デバイスを形成する工程（ｊ）と、  A step (j) of forming a pipe-type thermoelectric power generation device by disposing a first electrode on one end of the second laminate and a second electrode on the other end;
を有するパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device. 工程（ｉ）において、前記パイプを構成する第１平板状部材および第２平板状部材の各接合面が前記パイプの長手方向に沿って傾斜する、前記第２積層体が形成される、  In the step (i), the second laminate is formed in which the joining surfaces of the first flat plate member and the second flat plate member constituting the pipe are inclined along the longitudinal direction of the pipe.
請求項１１に記載のパイプ型熱発電デバイスの製造方法。  The manufacturing method of the pipe-type thermoelectric power generation device according to claim 11. パイプ型熱発電デバイスの製造方法であって、  A method for manufacturing a pipe-type thermoelectric power generation device, comprising:
下端に貫通孔を有し、その下端の方向に断面積が減少する金属からなる複数のカップ状部材を、空間を設けながら配置することにより、複数の貫通孔から構成される内部貫通孔を有するパイプを形成する工程（ｋ）と、  By having a through hole at the lower end and arranging a plurality of cup-shaped members made of a metal whose cross-sectional area decreases in the direction of the lower end while providing a space, it has an internal through hole composed of a plurality of through holes. Forming a pipe (k);
前記パイプの各前記空間に熱電材料からなる流動体を充填することにより、積層体を形成する工程（ｌ）と、  A step (l) of forming a laminate by filling each space of the pipe with a fluid made of a thermoelectric material;
前記積層体の一端に第１電極を、他端に第２電極を配置することにより、パイプ型熱発電デバイスを形成する工程（ｍ）と、  Forming a pipe-type thermoelectric power generation device by disposing a first electrode on one end of the laminate and a second electrode on the other end (m);
を有するパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device. 工程（ｋ）において、前記パイプは、  In step (k), the pipe is
第１内面および第１外面を有する複数の前記カップ状部材を、    A plurality of the cup-shaped members having a first inner surface and a first outer surface,
各カップ状部材が、各カップ状部材の第１外面と隣接する一方のカップ状部材の第１内面との間に空間が設けられるように、隣接する一方のカップ状部材に挿入され、    Each cup-shaped member is inserted into one adjacent cup-shaped member such that a space is provided between the first outer surface of each cup-shaped member and the first inner surface of one cup-shaped member adjacent to each cup-shaped member,
前記隣接する他方のカップ状部材が、各カップ状部材の第１内面と隣接する他方のカップ状部材の第１外面との間に空間が設けられるように、各カップ状部材に挿入されることにより形成される、    The other adjacent cup-shaped member is inserted into each cup-shaped member such that a space is provided between the first inner surface of each cup-shaped member and the first outer surface of the other adjacent cup-shaped member. Formed by,
請求項１３に記載のパイプ型熱発電デバイスの製造方法。  A method for manufacturing a pipe-type thermoelectric power generation device according to claim 13.
JP2010171632A 2010-07-30 2010-07-30 Method for manufacturing pipe-type thermoelectric power generation device, and method for manufacturing the laminate Active JP5598138B2 (en)

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WO2013150773A1 (en) * 2012-04-03 2013-10-10 パナソニック株式会社 Method for manufacturing pipe-shaped thermal power generation device
JP5834256B2 (en) * 2013-03-12 2015-12-16 パナソニックＩｐマネジメント株式会社 Thermoelectric generator, thermoelectric generator unit and thermoelectric generator system
JP5866533B2 (en) 2013-03-12 2016-02-17 パナソニックＩｐマネジメント株式会社 Thermoelectric generator unit, thermoelectric generator system and thermoelectric generator module
CN106684235B (en) * 2015-11-09 2019-04-02 北京卫星环境工程研究所 Space solar radiation electricity generation material porous structure and its device and manufacturing method
CN106684237B (en) * 2015-11-10 2019-05-31 北京卫星环境工程研究所 Space solar radiation electricity generation material grading structure and its device and manufacturing method
CN115188877A (en) * 2022-07-27 2022-10-14 武汉理工大学 Method for preparing flexible thermoelectric film with strong texture and high thermoelectric performance

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