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公开(公告)号:WO2022257825A1
公开(公告)日:2022-12-15
申请号:PCT/CN2022/096549
申请日:2022-06-01
Applicant: 爱法科技(无锡)有限公司
Abstract: 一种热能聚合设备,包括动态蒸发温度(深)低温制冷主机(1),制冷主机(1)连接设置有动态矩阵式集热装置(2),动态矩阵式集热装置(2)连接设置有吸收式热能提升装置(3),吸收式热能提升装置(3)连接设置有热能输送装置(4)。制冷主机(1)、动态矩阵式集热装置(2)、吸收式热能提升装置(3)、热能输送装置(4)均接入中央计算机(5)。中央计算机(5)依据外界环境温度和使用需求,自动调节制冷主机(1)的蒸发温度,使蒸发温度始终低于外界环境的温度,(深)低温的载冷剂进入动态矩阵式集热装置(2)中,吸取外界环境的热能,通过吸收式热能提升装置(3)提高热能品位,输送至用户端。
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2.
公开(公告)号:WO2022155538A1
公开(公告)日:2022-07-21
申请号:PCT/US2022/012626
申请日:2022-01-14
Applicant: EVOLUSUN INC.
IPC: H02S40/36 , H02S40/34 , H02S40/30 , H02S40/00 , H02S30/00 , H01L31/0465 , H01L31/05 , F24S20/00
Abstract: A solar system, arranged in one or more sub-systems, consists of solar panels. The solar panels are configured into a plurality of solar panel strings, using interconnect wires, wherein a solar panel string comprises at least two of the solar panels electrically connected in a serial manner. The solar panels of a first of the solar panel strings are arranged between at least one of the solar panels of a second of the solar panel strings, and the interconnect wires, for each of the solar panel strings, form only a single path between the top and the bottom of the sub-system. This wiring configuration has application to house wires in a solar awning with limited space to house solar panel interconnect wires.
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公开(公告)号:WO2022074117A1
公开(公告)日:2022-04-14
申请号:PCT/EP2021/077693
申请日:2021-10-07
Applicant: INSTITUT FÜR SOLARENERGIEFORSCHUNG GMBH
Inventor: MORLIER, Arnaud , BLANKEMEYER, Susanne , SCHULTE-HUXEL, Henning , PEIBST, Robby
Abstract: Es wird ein Solarmodul (1) beschrieben, welches einen Energieumwandler (2) zur Umwandlung von Licht (3) in elektrische oder thermische Energie und eine Schicht (4) aus naturbelassenem Material aufweist. Die Schicht (4) aus naturbelassenem Material weist eine Schichtdicke von zwischen 1 μm und 2 mm auf und kann unter anderem ein ästhetisches Erscheinungsbild des Solarmoduls (1) bewirken.
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公开(公告)号:WO2020240457A1
公开(公告)日:2020-12-03
申请号:PCT/IB2020/055062
申请日:2020-05-28
Inventor: PISANI, Lorenzo
Abstract: Method for optimizing the arrangement of heliostats on the territory of a tower-type solar power plant, the territory including a discrete grid of points (j=x, y, z) whereon a coverage (C j ) is defined as the ratio between the mirroring surface installed at said points and the corresponding territory area, the yearly solar radiation concerning a discrete grid of solar coordinates, zenith and azimuth (i=zen, azi), above a local horizon line, contributing to the usable radiation for the plant, comprising the following steps: - for each one of said points and solar coordinates, calculating an optimal density C opt ij , of the heliostats as the maximum specific mirroring area that can be covered at the considered grid point without the heliostats shading each other, thereby blocking the incident or reflected radiation; - for each one of said points, calculating the yearly collected energy as the sum of the energetic contributions of each solar coordinate, each one multiplied by the least value of the coverage and the optimal density for the corresponding solar coordinate; - for each one of said points, calculating an increase in the collected radiation resulting from increased coverage (C j, ) as the ratio between said collected energy and said coverage at that point; - calculating an optimal coverage C max.j with reference to the position of said tower, progressively increasing the coverage at said grid points until a target energy value (R max ) is obtained; - determining a distribution of the positions of the heliostats that complies with said optimal coverage relative to said tower, by means of the following steps: - dividing said territory into a number of wedges (Nw) having the same opening angle, which is equal to the ratio between the round angle and the number of wedges; - within each wedge, arranging said heliostats along half-lines parallel to the wedge axis, equidistant by a fixed mutual distance (D), the number of half-lines within each wedge increasing with the distance from the tower and being determined by the number of times that the distance between the half-lines can be contained in the side of the regular polygon having a number of sides equal to said number of wedges (Nw), centred at the tower; - positioning the first heliostat at the beginning of the line and positioning the other ones at a distance equal to the ratio between the heliostat area and the local optimal coverage multiplied by said distance (D) between the lines.
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5.
公开(公告)号:WO2022093138A1
公开(公告)日:2022-05-05
申请号:PCT/TR2020/051009
申请日:2020-10-28
Inventor: ŞENTÜRK, Halil Erman , ALHELALİ, Sami , ARICI, Bariş , IŞIK, Aydin Haydar
Abstract: The present invention is related to a modular floating structure for floating solar photovoltaic and wave hybrid power plants. The present invention is also related to a wave power mechanism to be used in a modular floating structure for floating solar photovoltaic and wave hybrid power plants. The current invention is further related to a method for producing electrical energy by using the modular floating structure for floating solar photovoltaic and wave hybrid power plants according to the invention. In another aspect, the invention is related to a panel carrier float for carrying a photovoltaic panel and the connection means for connecting the panel carrier floats.
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公开(公告)号:WO2021188875A1
公开(公告)日:2021-09-23
申请号:PCT/US2021/023113
申请日:2021-03-19
Applicant: ROSENDIN ELECTRIC, INC.
Inventor: ZHOU, Charles , MAZZETTI, William Paul Jr. , ROWE, Halston , LINCOLN, David Scott
Abstract: An autonomous solar module installation platform can be used for solar module installation onto a solar tracker. The autonomous solar module installation platform can include an autonomous ground vehicle and a robotic arm for the solar module installation onto the solar tracker. The autonomous ground vehicle can autonomously drive itself to the solar tracker using a global positioning system and align itself with the solar tracker using at least a vision system in order to place one or more solar modules onto the solar tracker.
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公开(公告)号:WO2021075959A1
公开(公告)日:2021-04-22
申请号:PCT/NL2020/050630
申请日:2020-10-13
Applicant: VIRIDI HOLDING B.V.
Inventor: VISSER, Nicolaas Johannes
IPC: F24D11/02 , H01L31/052 , H02S40/42 , H02S40/44 , F24S20/00
Abstract: The invention relates to a system comprising a photovoltaic panel having a first heat exchanger for absorbing heat from said panel and/or from the environment by a heat exchanging fluid, connected to a heat pump heat pump. The system further comprises a second heat exchanger for absorbing heat by the heat exchanging fluid and a control means for controlling a flow of the heat exchanging fluid trough the first heat exchanger and/or the second heat exchanger. The heat pump is arranged to cool the heat exchanging fluid. The system has the following operating modi: a first mode wherein cooled heat exchanging fluid is fed to the first heat exchanger; and a second mode, wherein cooled heat exchanging fluid is fed to the second heat exchanger and then fed to the first heat exchanger.
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公开(公告)号:WO2021001968A1
公开(公告)日:2021-01-07
申请号:PCT/JP2019/026520
申请日:2019-07-03
Applicant: 三菱電機株式会社
Abstract: 太陽エネルギー利用システム(1)は、太陽光を受けて発電する発電部(3)と、発電部(3)と一体に設けられている経路にて熱媒体が流動することによって発電部(3)と熱媒体との熱交換が行われる熱交換部と、熱媒体が流入可能な第1の流入口と、第1の流入口よりも鉛直上側に設けられており熱媒体が流入可能な第2の流入口とを有し、熱交換部との間において循環させる熱媒体が貯留される貯留部であるサブタンク(8)と、熱交換部から第1の流入口への熱媒体の流動と熱交換部から第2の流入口への熱媒体の流動とを切り換える切換え部である切換え弁(20)と、を備える。
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公开(公告)号:WO2020181680A1
公开(公告)日:2020-09-17
申请号:PCT/CN2019/092432
申请日:2019-06-22
Applicant: 西安交通大学
Abstract: 本发明公开了参与一次调频的太阳能辅助燃煤发电系统及其控制方法,通过中低温集热器与燃煤机组耦合,提出了高加给水旁路和低级凝结水旁路两种调节方案参与一次调频的系统构型;制定了一次调频控制逻辑,从而高效准确地参与到一次调频控制中,维持电网频率快速稳定;制定了热力系统工质出口温度的控制逻辑,通过调节集热器换热工质的流量保证各段温度在一次调频过程中稳定;本发明方法利用汽轮机系统和太阳能集热器的参数和运行匹配,增强了一次调频过程准确性和有效性;通过不同集热器不同温度区间的合理利用,降低了不可逆性,进一步提高各类热力系统调整方案的经济性;最终可以大幅度地提高互补发电机组瞬态过程运行灵活性。
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公开(公告)号:WO2020171781A1
公开(公告)日:2020-08-27
申请号:PCT/SI2020/050007
申请日:2020-02-13
Applicant: G.STANIČ-SVETOVANJE D.O.O.
Inventor: STANIČ, Gojko
Abstract: The object of the invention is a combined impact of technological systems that allow for self-sufficiency of buildings in solar energy in accordance with the public electricity system and biotechnological self-sufficiency systems for residents of urban and rural settlements in terms of sustainably produced food. The implementation of the set goal is made possible by the self-sufficiency of a building in solar energy in accordance with the public electricity system that is ensured by the technological solution to self-sufficiency of buildings in solar and electric energy based on a construction, in which the roof of the building/buildings on the north side is provided with photovoltaic hybrid thermal panels (1) at an angle that is optimal for the latitude, wherein the photovoltaic hybrid thermal panels (1) store heat in the earth 5 to 7 meters deep to heat the earth to more than 45°C and that the heat is used to heat water for washing, cooking, laundry washing, dishwashing, to heat greenhouses and swimming pools for cultivating aquaponic freshwater fish, and other needs; and in this way implementing the biotechnological systems of self-sufficiency of residents of urban and rural settlements in terms of sustainably produced food.
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