Resumen de: US20260071783A1
A solar energy collection system comprising: a plurality of tracked Fresnel lens arrays; a corresponding plurality of thermal cells positioned to receive solar energy focused by the respective plurality of tracked Fresnel lens arrays; and a working fluid circulation system that circulates a working fluid through the plurality of thermal cells to a discharge point. The discharge point comprises a power conversion unit such as a thermal engine and generator. A thermal housing comprises a first trough-shaped portion that accepts at least one thermal storage device; a second trough-shaped portion providing an air channel for flow of air; a baffle that redirects flow of air through the second trough-shaped portion to the first trough-shaped portion; and a top plate including at least one aperture that enables communication of heat into the first trough-shaped portion.
Resumen de: AU2024333137A1
A heliostat dirigible with a fluid containment structure defining a fluid volume configured to contain a lighter than air fluid. A curved reflective surface is supported by the fluid containment structure when the fluid volume contains a lighter than air fluid. The curved reflective surface is configured to reflect and concentrate sunlight at a target. Tethers and/or connections for a plurality of tethers are arranged around the fluid containment structure such that the attitude of the fluid containment structure can be adjusted when it is floating above the ground.
Resumen de: AU2026201223A1
There is provided a concentrated solar energy collection system including an array of heliostats and a solar receiver including a plurality of tubes having at least one inlet and at least one outlet for carrying a heat transfer fluid. A flow control arrangement is provided for controlling the flow of heat transfer fluid through the tubes. This includes at 5 least one radiation sensor such as a pyranometer for sensing values representative of the aggregate solar radiation falling on the solar receiver via the heliostats. At least one temperature sensor measures input temperature of the heat transfer fluid (HTF) at or near the inlet. A controller responsive to the radiation sensor and the at least one temperature sensor regulates the outlet temperature of the HTF by controlling the flow 10 of HTF through the tubes via the flow control arrangement. A pressure differential sensor arrangement measures pressure differential across the flow control arrangement, providing an input to the controller. Fig 6 15 eb e b Tom Tax Tom ****** Receiver Receiver eb e b e c e i v e r i g
Resumen de: AU2026201296A1
RGUP-0009 An electromagnetic radiation collecting and directing apparatus is described herein. The electromagnetic radiation collecting and directing apparatus facilitates directing light from an exterior of a structure to an interior of a structure. The directed light is then distributed as necessary within the structure for heating, illumination, or is stored for use at a later time. RGUP-0009 eb - e b
Resumen de: US20260071608A1
The present invention relates to a dual-use solar vortex greenhouse with a clamshell-shaped roof comprising a plurality of multi-paned, paired trapezoidal chutes (1) configured to capture and concentrate solar-heated air. Heated and moistened air flows through vanes (32, 33) into a swirl chamber (27), forming a vortex that spins an electric wind turbine (10) to generate electricity. A cone (2) and stack (16) assembly stabilize the vortex and directs exhaust upward. The interior of the greenhouse (55) supports hydroponic plant cultivation with integrated climate control systems, including shutters and/or orifice closure doors (11,42,35), dampers (23,30,31) misters (34), and radiators (43), which are electronically regulated by a plurality of thermostats (41) including a humidistat, anemometers (41), actuators (24) including a photocell sensor. The structure is modular and latitude-adjustable for maximizing solar capture, and can be prefabricated. The invention integrates renewable energy generation with sustainable food production, providing efficient use of land, water, and solar resources.
Resumen de: CN121631589A
本发明公开了一种用于太阳能空气能协同的加热控制方法及系统,该方法包括:获取户外温度和加热系统的储水容器温度;所述加热系统包括有设置在同一供水回路中的太阳能加热模块和空气能加热模块;根据所述户外温度,判断是否符合光照条件,得到第一判断结果;根据所述储水容器温度,判断是否符合空气能启动条件,得到第二判断结果;根据所述第一判断结果和所述第二判断结果,确定所述太阳能加热模块和/或所述空气能加热模块的加热工作策略。可见,本发明能够实现基于天气与水温的智能模块协同控制,提升加热系统的能源利用效率与稳定性,降低因天气或温度误判导致的能耗浪费或加热不足风险。
Resumen de: CN121631590A
本发明属于太阳能热发电技术领域,公开了一种安装调节装置及吸热器组件安装调节系统,其包括第一滑动摩擦件和推动组件。第一滑动摩擦件设置于第一部件和第二部件之间,第一滑动摩擦件被配置为用于减少第一部件与第二部件之间的摩擦力;第二部件上包括至少一个推动组件安装位,每个推动组件安装位均设置于第一预设线的周向上,至少一个推动组件安装位上设置有推动组件;推动组件包括固定部和移动部,移动部可移动地设置于固定部中,固定部能安设于第二部件上,移动部连接于第一部件,或是移动部抵接于第一部件。其能够解决吸热器组件和安装钢架之间安装位置调整的问题,同时兼顾解决制造、安装过程中因误差导致的安装问题。
Resumen de: CN121631361A
本发明公开了一种基于自动清洗镜场的高原光热供暖装置及其使用方法,属于高原光热供暖技术领域。本发明提供的装置,包括设置在吸热塔周边的若干定日镜,每个定日镜的镜面底部设置有立柱,定日镜通过立柱以扇形或弧形方式布置在山地支撑地面上,立柱上集成有自适应清洗机构,通过多段铰接连杆构成的连杆组和自适应清洗头实现复杂地形下的稳定清洗,同时结合压力传感器维持微正压接触状态,实现了高原山地地形下的镜场高效布置,通过阶梯式排列消除定日镜之间的阳光遮挡,提升光能收集效率。同时,集成式清洗机构摆脱了对地面通行条件的依赖,通过自适应压力控制保证不同形状镜面的清洁质量,显著提高复杂地形环境下的系统运行可靠性。
Resumen de: CN121632915A
本发明公开了一种耦合太阳能的节能型高温氨腐蚀测试及分析系统,包括太阳能加热模块、液氨罐、蒸发器、第一过滤器、缓冲罐、第二过滤器和测试单元;太阳能加热模块利用光伏发电和集热为蒸发器提供热能,液氨经蒸发器气化后依次通过第一过滤器和缓冲罐,进入第二过滤器进行多级净化;第二过滤器采用吸附与缓冲复合结构,结合不同材质的过滤层,提高氨气纯度;测试单元内置多段密集度不同的螺旋盘管,配合外部感应线圈加热。该装置通过太阳能驱动和氨气循环利用,显著降低能耗,同时多层过滤和分段温控设计提升了腐蚀测试的准确性和适用性,可模拟不同高温条件下的氨腐蚀环境,具有高效节能、测试精确、自动化程度高等优点。
Resumen de: CN121631591A
本发明公开了一种熟水制备装置及方法,旨在解决现有熟水制备能耗高、换热效率低、余热浪费及储存温降快的技术问题。该装置通过智能换热单元(太阳能换热水箱+余热回收水箱)实现“温度优先”的动态预热,结合闭环余热循环单元回收利用热量,搭配双路分流活化与余热保温储水设计,在降低35%‑55%能耗的同时,制备出小分子团熟水并实现24‑48小时长效保温,该装置及方法能制造出符合人体健康饮用标准的熟水,符合节能减排政策,适用于灌装水及直饮水供应企业的更新改造。
Resumen de: CN121631621A
本发明公开了一种基于柔性辐射制冷材料的动态调控与集热系统及应用,属于太阳能利用技术领域;包括若干个仿生趋光柔性曲面辐射制冷装置场、跟踪系统和太阳能光热利用系统;仿生趋光柔性曲面辐射制冷装置场包括柔性辐射制冷膜、膜面平曲转换装置和若干支撑杆;跟踪系统包括控制器以及与控制器电连接的温度传感器和光强传感器;太阳能光热利用系统包括太阳能接收器和储热罐,储热罐内设有传热工质;高温环境下,柔性辐射制冷膜在反射太阳光至太阳能接收器的同时,通过红外辐射向外部散热,降低建筑室内降温所需能源的消耗;同时,太阳能接收器收集的热量储存于储热罐,可用于建筑日常热水供应,实现太阳能高效利用。
Resumen de: CN121631665A
一种光热‑空气能蓄热耦合的霜控热泵供能系统及其供能方法,涉及供能系统领域。为了解决现有的供能系统不能在极寒环境下稳定功能、能效低下、热泵稳定性差、除霜方式不合理、能源成本高、设备寿命缩短、供暖效果不佳的缺陷,本发明采用光热预热系统收集太阳能,为空气源热泵提供预热;空气源热泵收集空气能,对极寒环境进行供能;智能霜控系统用于将光热预热系统与空气源热泵相结合,实现对光热预热系统和空气源热泵的智能协同控制;传感器组用于实时监测空气源热泵的运行参数。本发明主要用于为高寒地区供暖、工业热泵、高效除霜等领域提供了高效、可靠的供能系统。
Resumen de: CN121605886A
本发明提供一种太阳能聚光土壤增温与空气取水自灌溉装置,属于农业设施太阳能热利用技术领域。该装置能够在有太阳辐射时,实现对种植土壤的增温,无日照时,实现空气取水自灌溉。该装置包括太阳能聚光单元、蒸发冷凝单元以及集水单元;蒸发冷凝单元包括锥形蒸发管;锥形蒸发管内底部具有蒸发液;使用时,锥形蒸发管底部插入种植土壤中;太阳能聚光单元设置在锥形蒸发管头部,用于将太阳光线反射聚焦后进入锥形蒸发管;锥形蒸发管内表面为内反射面,用于将进入锥形蒸发管的太阳光线反射到底部的蒸发液表面;集水单元设置在锥形蒸发管位于种植土壤上部的外壁面,用于收集设施内湿空气的冷凝水,并使冷凝水汇聚形成水流后向下流动进入种植土壤中。
Resumen de: CN121618479A
本发明涉及能源技术领域,其公开了一种煤基SOE/RSOC多能互补能源大基地的构型,构型包括连接于电力母线的燃煤电站、光伏‑风电、SOE/RSOC单元、储能子系统,以及连接于所述SOE/RSOC单元的太阳能聚光集热,所述SOE/RSOC单元包括所述SOE单元和RSOC单元;所述燃煤电站与所述SOE/RSOC单元耦合以提升燃煤电站灵活性与调峰能力,保障区域电网稳定基础电力,所述太阳能聚光集热预热所述SOE/RSOC单元来流物料。本发明将氢能作为能源转换与存储的核心媒介,通过SOE/RSOC电解模式消纳过剩区域电力制氢,再通过RSOC发电模式将氢能转化为电力,实现绿电‑氢能‑绿电的闭环。
Resumen de: CN121618935A
本发明公开了一种光伏光热一体化设备,涉及光伏光热技术领域,包括转位装置、支撑装置、光热装置、光伏装置、联动组件。在光伏模式下,循环液会先供给到聚热筒内,随后再供给到集热组件中的集热毛细管内和透光组件中的导热筒内,当阳光照射到换能组件上的太阳能板时,会产生多余的热量,而多余的热量会被传递到集热毛细管内的循环液中,随后循环液将多余的热量带走,来实现冷却功能。手动将换位组件上的换位螺栓从换位卡孔中拧出,随后通过换位拉板带动换能齿条在换位底板中滑动,换能齿条带动三叶轮转动,三叶轮带动换能卡板在换能底盘上向外伸出,来实现换能底盘与换位底板之间的卡位功能,从而实现换能组件的快速安装功能。
Resumen de: CN121605887A
本发明提供一种农业设施太阳能土壤储供热系统,用于解决现有设施冬季增温除湿过程中所存在的各种问题。该储供热系统包括太阳能聚光集热模块和热输运模块;太阳能聚光集热模块布置于农业设施外部,用于收集汇聚太阳光线并加热流经其内部的循环介质空气,以向热输运模块提供热空气;热输运模块包括送热管、换热管和风机;换热管位于农业设施内的土壤中,两端分别通过送热管与对应端的太阳能聚光集热模块相连;其中一端的送热管上设置有风机;换热管内部嵌装有可变形隔热板;可变形隔热板将换热管内部分为上下两个空间,可变形隔热板通过其位置或/和形状的改变使热空气从其上部空间或下部空间流过。
Resumen de: CN121609397A
本发明适用于环保工程领域,提供了一种环保工程用污水处理设备,包括卧式反应容器,且卧式反应容器通过位于自身底部的支柱进行安装,还包括:配置有温敏型聚合物凝胶的填充层,填充层位于卧式反应容器的内部;光伏组件,光伏组件通过支架安装于卧式反应容器的顶部,光伏组件包括滑动设置在支架顶部的两个光伏部件,两个光伏部件能够同步且呈相对方向移动;部署于卧式反应容器和光伏组件上的传感器阵列。其有益效果是:本发明通过光伏部件的滑动开合智能调控太阳辐照对卧式反应容器的热输入,低成本地为温敏凝胶创造所需的周期性变温环境。
Resumen de: JP2026037900A
【課題】従来よりも簡易且つ効率的にレゴリスから固形材を形成可能な固形材製造装置を提供する。【解決手段】固形材製造装置1は、月面100を覆うレゴリスを収納する加熱容器2と、太陽光を反射させる反射鏡5、及び反射鏡で集光した太陽光の照射方向を所望の方向に変えるように制御する照射方向制御手段6を有する反射鏡装置4とを備え、反射鏡5で集光した太陽光の照射にて加熱容器2を所定温度以上に加熱することで溶解した加熱容器2内のレゴリスを所望の形状を成す固形材200に形成可能に構成される。【選択図】図1
Resumen de: WO2026046798A1
A window module (1) for thermal regulation of a building is described, with which the building can be heated or cooled. This comprises an exterior glazing (2) and an interior glazing (3). The exterior glazing (2) has a lower heat transfer coefficient (Ua) than the interior glazing (3) in order to regulate the temperature inside the building via the interior glazing (3). An air-liquid heat exchanger (5) comprises a fluid-flow cooling/heating element with a fluid line in which a heat transfer medium is guided. When the window module (1) is installed, the heat exchanger (5) is arranged horizontally at the bottom or top in the intermediate space (4) so that air can flow through the heat exchanger (5) from the intermediate space (4). When the window module (1) is installed, a fan (10) is arranged horizontally at the top or bottom in the intermediate space (4), wherein air is passed through the heat exchanger (5) by the fan (10) in order to exchange heat between the air and the heat transfer medium and to pass the air in the intermediate space (4) in a circuit. A separating element (19) arranged in the intermediate space (4) divides the intermediate space (4) into an inner intermediate space (4I) and an outer intermediate space (4A) in order to generate a rising and a falling air flow in the intermediate space (4). A controllably adjustable sun protection device (11) serves as a sun protection function, which is arranged in the outer intermediate space (4A) and adjoins to the exter
Resumen de: WO2026047717A1
A solar-powered waste treatment system comprising a waste treatment vessel with interior chamber for processing waste material, and reflective elements configured to concentrate solar radiation onto the vessel to elevate internal temperature. The system includes adjustment means for optimizing solar radiation concentration based on varying conditions, thermal retention means for minimizing heat loss, and supplemental heating means providing thermal energy when solar radiation is insufficient. Temperature control means maintain predetermined conditions for optimal biological waste processing. The system features modular construction enabling disassembly and deployment in remote locations, with gas processing means treating generated gases before atmospheric release. Multiple processing chambers facilitate sequential waste treatment stages. The reflective elements comprise mirror panel assemblies with enhanced reflectivity coatings mounted on exterior surfaces and positioned to focus solar radiation onto predetermined heating zones, maintaining optimal temperatures for efficient waste decomposition in extreme environmental conditions including high-altitude and cold climate regions.
Resumen de: US20260063334A1
A factory for manufacturing useful products while orbiting is space uses concentrated solar energy, high vacuum, and the low temperatures available in a space environment. Gyroscopic forces from rotating machinery are carefully controlled. Liquids, gases, and solid minerals are separated from asteroid and lunar regolith resources.
Resumen de: US20260066834A1
The invention provides a new class of solar energy harvesting devices that integrate both photovoltaic and concentrating solar cogeneration systems with shared heliostatic tracking in an inventive manner that enables synergistic benefits and overall optimization. Roof, ground & water supported preferred embodiments provide benefits for varied applications. The new class of synergistic tracking integrated photovoltaic and concentrating solar energy harvesting systems comprise systems that encompass both (i) a nonconcentrating photovoltaic system such as a solar panel and (ii) a concentrating cogeneration system that includes a concentrating photovoltaic (CPV) receiver and a heat transfer subsystem, wherein the two systems (i) and (ii) share heliostatic tracking provided by a tracking subsystem and are inventively integrated physically and operationally to enable benefits in terms of solar energy harvest efficiency, space-efficiency, cost-effectiveness and lifecycle cost of energy, while minimizing or precluding shadowing losses and enabling further benefits.
Resumen de: US20260063332A1
The present invention relates to the system for controlling heat air by using solar block of function of thermal storage. The system discloses a solar block that is part of the exterior wall of a building or placed on the outside of the exterior wall and stores solar radiant heat; a thermal storage wall part that introduces air outside the building, passes through the solar block, and introduces heated air into the building through heat exchange with the solar block; and a heat air circulation part that supplies heated air received from the thermal storage wall part to the inside of the building and uses it as an auxiliary heat source for heating, or selectively dries clothes in conjunction with a drying rack.
Resumen de: WO2026048291A1
A photothermal conversion member according to one embodiment of the present invention is capable of performing heating without affecting the transmission and reception of light and without using low-power heating or exclusive heating power. The photothermal conversion member includes a base material with infrared transparency and an infrared-absorbing heat generation layer supported by the base material. When viewed in the normal direction of the base material, the infrared-absorbing heat generation layer may include a pattern section that is patterned, and the infrared-absorbing heat generation layer may include a second portion of an oxide that contains nickel and phosphorus and constitutes a protrusion.
Nº publicación: EP4702666A1 04/03/2026
Solicitante:
CAP ENERGY [FR]
Cap Energy
Resumen de: WO2024224028A1
The present invention relates to a system (1) for producing electricity from solar radiation, comprising a support structure (2) and a plurality of photovoltaic modules (11a, 11b, 12a, 12b, 13a, 13c) supported by the support structure (2), characterised in that the photovoltaic modules (11a, 11b, 12a, 12b, 13a, 13c) are arranged at a plurality of levels (21, 22, 23) of the support structure (2) so as to be stacked substantially vertically, the distance between two consecutive levels of the plurality of levels (21, 22, 23) being such that the photovoltaic module or modules (11a, 11b, 12a, 12b, 13a, 13c) of one level (21, 22, 23) are never in the shadow of the module or modules (11a, 11b, 12a, 12b, 13a, 13c) of the immediately higher level (21, 22, 23).