Resumen de: US2025300594A1
Systems and methods for mounting solar panels include a curb assembly coupled to a top surface of a roof. An end of a solar panel rests on a portion of the assembly. An astragal is located with a portion of the astragal extending over the edge of the solar panel. A fastener is engaged through the astragal and the curb assembly such that a portion of the astragal contacts and compressively engages the top surface of the supported solar panel edge, whereby the solar panel is mounted to the roof. Moreover, systems and methods cleaning solar panels of a solar panel system installed on an exterior surface are also described.
Resumen de: US2025297783A1
A heat exchanger assembly includes a first stage heat exchange section defining one or more intakes for receiving a fluid. The first stage heat exchange section includes one or more preheater elements radially insertable into the first stage heat exchange section with respect to a centrally disposed axis of the heat exchanger assembly. The preheater elements define one or more preheat flowpaths extending radially inward from the intakes. The preheater elements transfer thermal energy to or from the fluid as the fluid flows from the intakes through the preheat flowpaths. A centrally disposed second stage heat exchange section defines an axial flowpath that is fluidly connected to the preheat flowpaths to receive the fluid from the preheat flowpaths. The second stage heat exchange section transfers thermal energy to or from the fluid as the fluid flows through the axial flowpath.
Resumen de: US2025296068A1
There is a high-temperature tube bundle reactor built from material derived from metal oxides such as alumina-zirconia. The heat exchange surfaces of the reactor have a specific surface finish, and the bulk matrix of the material of the various components of the reactor has a specific grain, pore size and porosity characteristics. There is also a high-temperature redox process using the reactor.
Resumen de: AU2025201628A1
A device may include one or more cameras arranged relative to the heliostat field so that heliostats in the heliostat field are in a field of view of the one or more cameras, the one or more cameras operable to capture an image of the heliostat field. A device may include a processor configured to: receive the captured image, detect in the captured image one or more soiled heliostat mirrors in the heliostat field; and determine a level of soiling of said one or more soiled heliostat mirrors in the heliostat field. A device may include one or more cameras arranged relative to the heliostat field SO that heliostats in the heliostat field are in a field of view of the one or more cameras, the one or more cameras operable to capture an image of the heliostat field. A device may include a processor configured to: receive the captured image, detect in the captured image one or more soiled heliostat mirrors in the heliostat field; and determine a level of soiling of said one or more soiled heliostat mirrors in the heliostat field. ar d e v i c e m a y i n c l u d e o n e o r m o r e c a m e r a s a r r a n g e d r e l a t i v e t o t h e h e l i o s t a t f i e l d s o t h a t h e l i o s t a t s i n t h e h e l i o s t a t f i e l d a r e i n a f i e l d o f v i e w o f t h e o n e o r m o r e c a m e r a s , t h e o n e o r a r m o r e c a m e r a s o p e r a b l e t o c a p t u r e a n i m a g e o f t h e h e l i o s t a t f i e l d d e v i c e m a y i n c l u d e a p r o c e s s
Resumen de: US2025297781A1
A heat exchanger assembly includes an absorber element defining an axial flowpath for a fluid extending along an axis. The absorber element includes an outer support wall and one or more support members extending radially inward from the outer support wall with respect to the axis. The heat exchanger assembly also includes one or more heat exchange elements floatably coupled to the one or more support members where the one or more heat exchange elements extend along the axial flowpath.
Resumen de: EP4621310A1
The present invention relates to the definition of a tensile funicular structure for arranging tables of photovoltaic solar panels and to a method for assembling or installing same.
Resumen de: EP4621307A1
A heat exchanger assembly (8) includes a first stage heat exchange section (31) defining one or more intakes (212) for receiving a fluid. The first stage heat exchange section (31) includes one or more preheater elements (210) defining one or more preheat flowpaths (214) extending radially inward from the one or more intakes (212) with respect to a centrally disposed axis (20) of the heat exchanger assembly (8). The one or more preheater elements (210) include one or more guide vanes (218, 220) configured to guide a flow of the fluid in a spiral path from the one or more intakes (212) toward the centrally disposed axis (20). A centrally disposed second stage heat exchange section (33) is fluidly connected to the one or more preheat flowpaths (214) to receive the fluid from the one or more preheat flowpaths (214).
Resumen de: EP4621309A1
A heat exchanger assembly (8) includes a first stage heat exchange section (31) defining one or more intakes (28, 212) for receiving a fluid. The first stage heat exchange section (31) includes one or more preheater elements (94, 210) radially insertable into the first stage heat exchange section (31) with respect to a centrally disposed axis (20) of the heat exchanger assembly (8). The preheater elements (94, 210) define one or more preheat flowpaths (42, 214) extending radially inward from the intakes (28, 212). The preheater elements (94, 210) transfer thermal energy to or from the fluid as the fluid flows from the intakes (28, 212) through the preheat flowpaths (42, 214). A centrally disposed second stage heat exchange section (33) defines an axial flowpath (62) that is fluidly connected to the preheat flowpaths (42, 214) to receive the fluid from the preheat flowpaths (42, 214). The second stage heat exchange section (33) transfers thermal energy to or from the fluid as the fluid flows through the axial flowpath (62).
Resumen de: EP4621308A1
A heat exchanger assembly (8) includes an absorber element (60) defining an axial flowpath (62) for a fluid extending along an axis (20). The absorber element (60) includes an outer support wall (182) and one or more support members (184) extending radially inward from the outer support wall (182) with respect to the axis (20). The heat exchanger assembly (8) also includes one or more heat exchange elements (188) floatably coupled to the one or more support members (184) where the one or more heat exchange elements (188) extend along the axial flowpath.
Resumen de: CN120684740A
本发明涉及热能储存供暖技术领域,提供一种结合太阳能储热与建筑改造的供暖方法、装置及系统,包括在建筑外墙结构中设置蓄热墙体,增强建筑热惯性以减少供暖负荷;通过太阳能集热单元在昼间收集热量,优先存储于相变储热单元中,并基于导热油温度阈值控制能量分配;基于夜间分时电价策略,通过加热单元在非高峰时段对相变储热单元补充热量,维持储热温度不低于40℃;通过多回路温控单元动态调节供暖回路,当建筑室内温度低于20℃时,优先释放相变潜热,当显热储备不足时触发加热单元辅助供热;提高太阳能利用率,延长室内采暖时间,提供更稳定的能量供给、更高的太阳能占比以及更少的运行费用,在小型住宅的储热系统中具有广阔的应用前景。
Resumen de: AU2023397954A1
Floating device for solar energy production comprising a plurality of connected solar panels (31) arranged at the surface of a polyhedron structure (11) with a top end (12) and a bottom end (13) defined by a frame structure av pipe elements (14) connected to one another at nodes (15) to form polygonal areas (16) constituing the areas at the suraface of the polyhedron structure (11) in which the solar panels (31) are mounted. Within the interior of said polyhedron structure(11), a central buoyancy body (20) is arranged in a manner allowing vertical displacement thereof.
Resumen de: CN120684287A
本发明涉及机组储能调峰发电技术领域,尤其涉及一种集成混合储能的风光火储联合发电系统及方法。风光火储联合发电系统与电网连接,包括蒸汽动力循环、太阳能集热、熔盐储热、先进绝热压缩空气储能、光伏及风力六大子系统。各子系统分工明确:蒸汽动力循环提供主蒸汽热能以及供应电能,太阳能集热转化太阳能,熔盐储热调节能量,压缩空气储能实现能量双向转换,光伏和风力发电供应电能。系统通过六个阀门组件控制能量流向,开启或关闭特定阀门,即可切换储能、释能模式,灵活调配能源,提升可再生能源消纳能力,保障电网稳定运行。
Nº publicación: CN120684286A 23/09/2025
Solicitante:
华电科工股份有限公司
Resumen de: CN120684286A
本发明公开了耦合热泵、串级压缩、多罐熔盐的卡诺电池系统,包括发电机,所述发电机连接蒸汽朗肯循环单元,所述蒸汽朗肯循环单元上依次连接有双盐种多罐储热单元和布雷顿热泵循环单元,同时还公开了系统的控制方法。本发明通过合理设计系统结构,改造现有卡诺电池系统的结构,在电网供电低谷时,将多余的电转化为热储存,在电网供电高峰时,将储存的热转化为电释放出来,此过程中,对热泵侧冷源空气进行供热,可以更好的使用环境热,使得布雷顿热泵循环的效率更高,整体的系统效率增大,使系统得以改进。与此同时对热泵侧储热进行多级压缩串联改变,所产生的热更多,使得布雷顿热泵循环的效率更高,整体的系统效率增大。