Thermal transpiration flow heat pump
US-2016341458-A1 · Nov 24, 2016 · US
US9416998B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-9416998-B2 |
| Application number | US-201013508208-A |
| Country | US |
| Kind code | B2 |
| Filing date | Nov 8, 2010 |
| Priority date | Nov 6, 2009 |
| Publication date | Aug 16, 2016 |
| Grant date | Aug 16, 2016 |
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The invention relates to a heat pump according to the adsorption principle, comprising a plurality of hollow elements each having an adsorbent, wherein a working medium is enclosed in each of the hollow elements is displaceable between the adsorbent and a phase change area, wherein a heat-transporting fluid in a variable fluid circuit can flow through the hollow elements by means of a valve arrangement. The hollow elements are brought into thermal contact with the fluid in the area of the adsorbent, wherein the flow through the hollow elements changes cyclically with the fluid, wherein at least two of the hollow elements are flown through parallel from the fluid at least in one, in particular each position of the valve arrangement, and at least two of the hollow elements are flown through serially one after the other.
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The invention claimed is: 1. An heat pump comprising: a plurality of hollow elements, wherein each hollow element encloses a phase change area comprising a capillary structure and an adsorber area comprising an adsorbent, wherein the adsorber area and the phase change area further enclose a working medium that is displaceable between the adsorbent area and the phase change area, wherein the working medium enclosed in the phase change area and the adsorber area is fluidically divided from remaining portions of the plurality of hollow elements, wherein a heat-transporting fluid flows through the remaining portions of the plurality of hollow elements in a first circuit and a second circuit, wherein in the first circuit the heat-transporting fluid passes through a first flow channel permeating each hollow element of the plurality of hollow elements which are brought into thermal contact with the adsorber areas, wherein in the second circuit the heat-transporting fluid passes through a second flow channel permeating each hollow element of the plurality of hollow elements which are brought into thermal contact with the phase change areas, wherein the heat-transporting fluid of the first circuit and the second circuit flows through the plurality of hollow elements in a fluid circuit which is varied by a valve arrangement, wherein the flow of the heat-transporting fluid through the plurality of hollow elements changes cyclically, wherein each position of the valve arrangement, heat-transporting fluid flows in parallel through at least two of the hollow elements of the plurality of hollow elements in each of the first circuit and the second circuit, wherein the flow passes serially in succession through at least two of the hollow elements of the plurality of hollow elements in each of the first circuit and the second circuit, wherein a number of hollow elements through which there is a parallel flow corresponds at least approximately to a quarter of the number of hollow elements of the plurality of hollow elements through which there is a serial flow in each of the first circuit and the second circuit. 2. The heat pump as claimed in claim 1 , wherein in each position of the valve arrangement the parallel flow in each case is in at least two groups of the plurality of hollow elements, wherein at least one of the groups is arranged directly upstream or downstream of a heat exchanger. 3. The heat pump as claimed in claim 1 , wherein a further heat-transporting fluid flows through the plurality of hollow elements in a fluid circuit which is varied by a further valve arrangement, wherein the hollow elements are brought into thermal contact with the further heat-transporting fluid in the phase change area, wherein the flow of the further heat-transporting fluid through the plurality of hollow elements changes cyclically. 4. The heat pump as claimed in claim 3 , wherein in at least one position of the further valve arrangement, the further heat-transporting fluid flows in parallel through at least two of the plurality of hollow elements in the phase change area, wherein the flow passes through at least two of the plurality of hollow elements serially in succession. 5. The heat pump as claimed in claim 4 , wherein in each position of the further valve arrangement, the further heat-transporting fluid flows in each case in parallel through at least two groups of the plurality of hollow elements in the phase change area, wherein a heat exchanger is arranged directly upstream or downstream of at least one of the groups. 6. The heat pump as claimed in claim 1 , wherein in a given position of the valve arrangement, a subset of the plurality of hollow elements is connected to form a partial circuit, wherein the heat-transporting fluid is circulated through the partial circuit by a circulation pump. 7. The heat pump as claimed in claim 6 , wherein a total of three partial circuits are provided, wherein the partial circuits are separated and are each circulated by one of three circulation pumps. 8. The heat pump as claimed in claim 6 , wherein a total of two circulation pumps are provided, wherein a first partial circuit is circulated by a first circulation pump, and a second partial circuit communicates with the first partial circuit and is circulated by a second circulation pump. 9. The heat pump as claimed in claim 1 , wherein in each case the heat-transporting fluid does not flow through at least one of the hollow elements phase change area. 10. The heat pump as claimed in claim 9 , wherein the hollow element which there is not a flow through the phase change area is arranged in each case between a group of hollow elements of the plurality of hollow elements which absorb heat in the phase change area and a group of hollow elements of the plurality of hollow elements which output heat in the phase change area. 11. The heat pump as claimed in claim 1 , wherein the valve arrangement comprises at least one-rotation valve with a cylindrical casing and a valve body which is arranged rotatably therein. 12. The heat pump as claimed in claim 11 , wherein the rotation valve comprises end-side feed lines and discharge lines for connecting to the individual hollow elements of the plurality of hollow elements. 13. The heat pump as claimed in claim 11 , wherein the valve body forms at least one annular space, wherein at least two axial ducts open into the annular space, wherein the at least two axial ducts are each connected to the plurality of hollow elements which are connected in parallel, and wherein at least one radial opening of the annular space is provided, wherein the opening is connected to the at least two axial ducts via the annular space. 14. An adsorption principle heat pump comprising: a plurality of hollow elements wherein each hollow element comprises a phase change area comprising a capillary structure and an adsorber area comprising an adsorbent, wherein the adsorber area and the phase change area further enclose a working medium that is displaceable between the adsorbent area and the phase change area, wherein the working medium enclosed in the phase change area and the adsorber area is fluidically divided from remaining portions of the plurality of hollow elements, wherein a heat-transporting fluid flows through the plurality of hollow elements in a first circuit and a second circuit, wherein in the first circuit the heat-transporting fluid passes through a first flow channel permeating each hollow element of the plurality of hollow elements which are brought into thermal contact with the adsorber areas, wherein in the second circuit the heat-transporting fluid passes through a second flow channel permeating each hollow element of the plurality of hollow elements which are brought into thermal contact with the phase change areas wherein the heat-transporting fluid of the first circuit and the second circuit flows through the plurality of hollow elements in a fluid circuit which is varied by a valve arrangement, wherein the flow of the heat-transporting fluid through the plurality of hollow elements changes cyclically, wherein in each position of the valve arrangement, at least a first subset of the hollow elements is arranged downstream of a first circulation pump of the first circuit and a second subset of the hollow elements is arranged downstream of a second circulation pump of the second circuit. 15. The heat pump as claimed in claim 14 , wherein the at least one of the first and second subsets of the plurality of hollow elements comprises at least two hollow elements of the plurality of hollow elements which are arr
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