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INTEGRATED HOT AIR SOLAR PANEL

Resumen de: HRUM20260023U2

Integrirani toplozračni solarni panel, koji obuhvaća čvrsti limeni okvir (6); sloj (8) negorive toplinske izolacije, prekriven paropropusnom folijom; zračni kanal (7) između absorbcijskog lima i sloja (8) negorive toplinske izolacije, pri čemu zračni kanal (7) ima na donjoj strani rupičasti ulaz (13) za ulaz vanjskog zraka i na gornjoj strani rupičasti izlaz (1) za izlaz zagrijanog zraka; razdjelnik (11) zraka; sabirnik (4) zraka; donju dvostrano brtvljenu T-zaklopku (10), koja je ugrađena u razdjelnik (11) zraka i preko spojne šipke povezana s donjim linearnim aktuatorom (22); gornjom obostrano brtvljenom T-zaklopkom (5), koja je ugrađena u sabirnik (4) zraka i preko spojne šipke povezana s gornjim linearnim aktuatorom (17); senzor temperature (18), koji je ugrađen u gornjem dijelu zračnog kanala (7); senzor temperature (19), koji je ugrađen u prostoru; programski regulator (20), koji je povezan sa senzorima temperatura (18) i (19).

Modulklemme zur Anbringung wenigstens eines Solarmoduls an einem Profilelement

Resumen de: DE102025105458A1

Die Erfindung betrifft eine Modulklemme (10) zur Anbringung wenigstens eines Solarmoduls (12) an einem Profilelement (14), das zumindest abschnittsweise einen offenen Querschnitt aufweist, umfassend:- einen ersten Klemmkörper (16) zur Anlage an wenigstens einem Solarmodulrahmen (18);- einen zweiten Klemmkörper (20), der dazu eingerichtet ist, das Profilelement (14) zumindest abschnittsweise zu umgreifen;- ein Befestigungselement (22), das den ersten Klemmkörper (16) und den zweiten Klemmkörper (20) miteinander verbindet; und- ein Federelement (24), das zwischen dem ersten Klemmkörper (16) und dem zweiten Klemmkörper (20) angeordnet ist und den ersten Klemmkörper (16) und den zweiten Klemmkörper (20) in eine Ausgangsstellung vorspannt, wobei zumindest das Federelement (24) dazu ausgebildet ist, zumindest den ersten Klemmkörper (16) und/oder den zweiten Klemmkörper (20) in einer vorbestimmten Relativposition zueinander zu halten.

TWO-STROKE EXPANSION ENGINE FOR CONVERTING THERMAL ENERGY INTO MECHANICAL ENERGY, AND METHOD FOR SAID CONVERSION

Resumen de: WO2026165626A1

The present invention aims to convert thermal energy in general, and solar energy in particular, into mechanical and electrical energy by means of a closed circuit of water heated to below 100°C to act as a hot-water reservoir. A two-stroke expansion engine is disclosed, comprising a device for converting heat into work based on a two-stroke cycle. During said first stroke of the engine, hot water is sprayed through the feed duct (6) onto the air contained in a heat exchanger (10) by means of a hot-water pressurising valve (9), thereby promoting heat exchange between the hot water and the air. This process results in an increase in the air pressure within the heat exchanger (10), which is transmitted to a pressure cylinder (11), thereby driving a piston (18) while said air expands. During the second stroke of the engine, an air pressurising valve (8) introduces new air into the heat exchanger (10) through the air line (7), while the air and water used during the previous stroke are directed to a separator (14), wherein the air is released into the atmosphere and the water is returned to the closed heating circuit. The water used as the working fluid is heated in the heater (4) by capturing solar energy (heat may be supplied from other sources) and is stored in the hot-water reservoir (2). The mechanical energy produced by the piston (18) drives an electrical power generator (21).

SOLAR THERMAL ENERGY STORAGE DEVICE

Resumen de: US20260227100A1

A solar energy storage device that includes a porous support, which includes nanosheets of MgO arranged to form spherical MgO microparticles, and a phase change material. The phase change material is impregnated into the porous support, that has a bimodal pore distribution having a first mode in a region of 5 nanometer (nm) to 10 nm and a second mode in a region of 25 nm to 75 nm. The spherical MgO microparticles have a mean particle size of 2.5 micrometers (μm) to 10 μm and are formed from nanosheets of MgO having a mean thickness of 5 nm to 150 nm.

HEAT TRANSFER OPTIMIZATION SYSTEM IN REFRIGERATION CYCLE USING HEAT EXCHANGER AND SOLAR VACUUM TUBE

Resumen de: WO2026162986A1

Heat transfer optimization system in the refrigeration cycle using a heat exchanger and solar evacuated tubes. In this system, the cold exhaust gas from the operator passes through the heat exchanger shell and receives heat from the compressor exhaust gas that passes through the inner tube of the exchanger and enters the spiral tube inside the water tank that has been heated by the solar evacuated tube. After heat exchange, the exhaust gas from the compressor becomes colder and enters the condenser and turns into liquid, and the cycle continues.

A CARBON-NEUTRAL DIABATIC COMPRESSED AIR ENERGY STORAGE SYSTEM

Resumen de: WO2026165403A1

Compressed air energy storage (CAES) using high temperature thermal energy stored in a solid or liquid thermal mass and methods of transferring the thermal energy from the TES to the air expansion system for the purpose of combined thermal and mechanical energy recovery.

SELENOTHERMAL ENERGY STORAGE

Resumen de: US20260227099A1

0000 A thermal control system for a lunar habitation module. The system includes an absorber, the absorber having a plurality of absorber heat pipes for gathering solar energy, the absorber being positioned above a lunar regolith. A diode heat pipe can be thermally coupled to at least one of the plurality of absorber heat pipes and a downcomer heat pipe can be thermally coupled to the diode heat pipe above the lunar regolith. A network of heat capacitor heat pipes can be thermally coupled to the downcomer heat pipe below the lunar regolith and a riser heat pipe can be thermally coupled to the network of capacitor heat pipes below the lunar regolith. A variable conductance heat pipe can be thermally coupled to the riser heat pipe above the lunar regolith and thermally coupled to a penetration-free thermal interface on the outside of the lunar habitation module. A human safe heat pipe thermally coupled to the penetration-free thermal interface on the inside of the lunar habitation module and a temperature regulation module can be operationally connected to the passive thermal control system to modulate heat transfer into the lunar habitation module.

高効率帯水層蓄熱冷暖房システム

Resumen de: JP3256935U

0001 【課題】 帯水層蓄熱をより効率よく利用できる高効率帯水層蓄熱冷暖房システムを提供する。施設の集約によって維持管理工数を削減することができる高効率帯水層蓄熱冷暖房システムを提供する 【解決手段】 帯水層７０に達して周囲に地下水７００よりも高温の温蓄熱帯水域２０を造る温熱井２と、前記温蓄熱帯水域２０から熱的影響を受けない位置の帯水層７０に達して周囲に地下水７００よりも低温の冷蓄熱帯水域３０を造る冷熱井３と、前記温熱井２および冷熱井３を通じて揚・注水し、屋内用、屋外用に送水する送水装置４と、前記送水装置４に循環する屋内用配管５と、前記送水装置４に循環する屋外用配管６とを有し、前記屋内用配管５に、地下水７００と屋内環境の熱交換をする屋内用熱交換器５０を接続し、前記屋外用配管６に、地下水７００と屋外環境の熱交換をする屋外用熱交換器６０を接続した、高効率帯水層蓄熱冷暖房システム１である。 【選択図】図１

SOLAR TABLE MOBILE TRANSPORT VEHICLE WITH RACK

Resumen de: AU2025211657A1

Embodiments of a solar table mobile transport vehicle capable of carrying multiple solar tables are described. Multiple solar tables may be vertically stacked on a rack. Each solar table may be supported by a pair of cantilevered beams such that the solar table may be unloaded from the rack in an unobstructed manner. The rack may be loaded on a mobile transport vehicle for transportation to a point of installation. Solar tables in the rack may be fetched by the mobile transport vehicle or another installation rover for installation. Such a capability of carrying multiple solar tables increases the installation efficiency of solar tables, especially for large solar farm constructions.

SOLAR MODULE MOUNTING SUPPORT

Nº publicación: EP4784955A1 05/08/2026

Solicitante:

ZIMMERMANN ROBERT [DE]
Zimmermann, Robert

Resumen de: WO2025068542A1

The invention relates to a solar module mounting support (10a; 10b), having: a solar module mounting unit (24a; 24b) for attaching at least one solar module (12a; 12b); at least one rotatable mounting axis (22a; 22b), to which at least one solar module mounting unit (24a; 24b) is attached; at least one further solar module mounting unit (36a; 36b) and a further rotatable mounting axis (34a; 34b) to which at least one further solar module mounting unit (24a, 36a, 116a; 24b, 36b) is attached; and at least one connecting module (50a; 50b) which non-rotationally couples the one mounting axis (22a; 22b) and the further mounting axis (34a; 34b) to one other. According to the invention the connecting module (50a; 50b) has a universal joint (52a; 52b) having two connecting units (54a, 56a; 54b, 56b), which non-rotationally connects the two mounting axes (22a, 34a; 22b, 34b) to one another .