A method for alternate storage and outputting of the thermal energy which is obtained in the primary circuit of a solar-thermal power station, using a heat carrier medium, which can be partially fed between a plurality of storage tanks, in each case flowing through a heat transmission apparatus whic
A method for alternate storage and outputting of the thermal energy which is obtained in the primary circuit of a solar-thermal power station, using a heat carrier medium, which can be partially fed between a plurality of storage tanks, in each case flowing through a heat transmission apparatus which is operatively connected to the primary circuit and/or to the steam/water circuit, which heat carrier medium can be heated to a higher temperature or can be cooled to a lower temperature, the aim is to provide a solution which makes it possible, with a storage capacity which is the same as that of installations known from the prior art, to avoid the disadvantages of the prior art, in particular with a smaller space requirement and occupying a smaller installation area. This is achieved in that at least one of the plurality of storage tanks is alternately used for storage of a respectively partially fed volume of the heat carrier medium in the state of its higher temperature and for storage of a respectively partially fed volume of the heat carrier medium in the state of its lower temperature.
대표청구항▼
1. A method for alternate storage and outputting of a thermal energy which is obtained in a primary circuit of a solar-thermal power station, using a heat carrier medium, comprising: partially feeding the heat carrier medium between a plurality of storage tanks, in each case flowing through a heat t
1. A method for alternate storage and outputting of a thermal energy which is obtained in a primary circuit of a solar-thermal power station, using a heat carrier medium, comprising: partially feeding the heat carrier medium between a plurality of storage tanks, in each case flowing through a heat transmission apparatus which is operatively connected to at least one of the primary circuit and a steam/water circuit, the heat carrier medium being one of heated to a higher temperature and cooled to a lower temperature, andin at least one of the plurality of storage tanks, alternately storing (a) a respectively partially fed volume of the heat carrier medium in a first state of a higher temperature and (b) a respectively partially fed volume of the heat carrier medium in a second state of a lower temperature. 2. The method as claimed in claim 1, wherein a first portion of the heat carrier medium is stored in an at least substantially filled first storage tank of the plurality of storage tanks, the first portion being fed into an at least substantially empty second storage tank of the plurality of storage tanks, the first portion flowing through the heat transmission apparatus and wherein a second portion of the heat carrier medium is stored in an at least substantially filled third storage tank of the plurality of storage tanks, the second portion being then fed into the substantially emptied first storage tank, the second portion flowing through the heat transmission apparatus. 3. The method as claimed in claim 1, wherein the feeding process is carried out both during the charging process and the discharging process of the thermal energy store. 4. The method as claimed in claim 1, wherein the heat carrier medium is pumped around between the storage tanks. 5. The method as claimed in claim 1, wherein a molten salt is stored and fed as the heat carrier medium. 6. A thermal energy store of a solar-thermal power station, comprising: a plurality of storage tanks connected to one another to carry fluid;a feed device; anda heat transmission apparatus operatively connected to at least one of a primary circuit and a steam/water circuit of the solar-thermal power station,wherein the plurality of storage tanks store a volume of a heat carrier medium, the heat carrier medium being partially fed between individual storage tanks flowing through the heat transmission apparatus and one of heated to a higher temperature and cooled to a lower temperature, andwherein at least one of the plurality of storage tanks alternately stores a partially fed heat carrier medium volume in a state of a higher temperature and a partially fed heat carrier medium volume in a state of a lower temperature. 7. The energy store as claimed in claim 6, wherein, one of the plurality of storage tanks has an unfilled free volume which corresponds to a maximum feed volume of heat carrier medium to be fed from each of the plurality of storage tanks to a respective other of the plurality of storage tanks, and wherein the remaining storage tanks of the plurality of storage tanks are filled with their respective nominal volumes of the heat carrier medium. 8. The energy store as claimed in claim 6, wherein the plurality of storage tanks have at least one of the same filling volume and a nominal volume. 9. The energy store as claimed in claim 6, wherein, one of the plurality of storage tanks has an unfilled free volume, and wherein the remaining tanks of the plurality of storage tanks are at least substantially completely filled with the heat carrier medium. 10. The energy store as claimed in claim 6, wherein the heat carrier medium is a molten salt. 11. The energy store as claimed in claim 6, wherein the storage tanks are connected to carry fluid to a pump, and are filled and emptied using the pump.
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이 특허에 인용된 특허 (5)
Pierce Bill L. (Whitehall PA), Direct contact heat exchanger with phase change of working fluid.
Pang, Raymond; Chen, Huijuan; Gadoury, Thomas Arthur; Mundra, Kamlesh; Peter, Andrew Maxwell; Watt, Duncan George, Thermal energy storage unit with steam and gas turbine system.
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