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MINERAL INSULATED CABLE, METHOD OF MANUFACTURING A MINERAL INSULATED CABLE, AND METHOD AND SYSTEM FOR HEATING A SUBSTANCE

Resumen de: AU2024234719A1

A mineral insulated cable includes an elongate core comprising a conducting ceramic-based material having a negative temperature coefficient. The elongate core is arranged on a central axis of the mineral insulated cable, and surrounded by an electrically insulating layer which comprises a mineral material. The conducting ceramic-based material is conductive relative to the electrically insulating layer. A metallic outer sheath concentrically envelopes around the electrically insulating layer. A current may be passed through the elongate core at high voltage, to generate up to 15kW per meter of cable in heat.

METHOD FOR INCREASING YIELD BY MEANS OF INTERMITTENT LIGHTING

Resumen de: WO2025171770A1

A method for increasing yield by means of intermittent lighting, the method comprising: arranging a shading strip at a certain interval above the ground; and using shadows of the shading strips to continuously shade, release, re-shade, and re-release sunlight irradiating the same crop so as to perform intermittent lighting on the crop, thereby preventing a decrease in photosynthetic efficiency caused by the activation of photosynthesis inhibition mechanisms by means of a constant strong light, and thus stimulating crop growth and increasing the crop yield. The present application can simultaneously have multiple gain functions such as intermittent lighting for yield increase, water delivery irrigation for yield increase, night-time lighting supplementation for yield increase, bird and rodent repelling for yield protection, and power generation/heat collection for income increase, thereby effectively promoting agricultural production.

FOUNDATION MEMBERS FOR REACTIVE SOILS AND METHODS AND MACHINES FOR INSTALLING SAME

Resumen de: WO2025174752A1

A method of embedding a threaded foundation component in ground with a layer of reactive soil with a combined drilling and driving machine includes: with an automated controller executing a control program, controlling the machine to begin an automated embedment operation to drive a threaded foundation component into a reactive soil; with the automated controller, controlling the machine to decouple a feed rate of the component from a rotary speed rate of the component to cause sheering of the soil around the foundation component by threads of the foundation component; and with the automated controller, controlling the machine to recouple the feed rate of the component to rotary speed rate of the component to reduce sheering of the soil around the foundation component by the threads of the foundation component until a target embedment depth for the foundation component is reached.

SOLAR ENERGY COLLECTING BLIND ARRANGEMENT

Resumen de: US2025263975A1

A solar energy collecting blind arrangement includes a blind housing, blind slats, and a retraction arrangement. Each of the blind slats includes a top layer and bottom layer. The top layer is designed to be positioned to face substantially toward a window and the bottom layer is designed to be positioned to face substantially toward an interior space. The top layer includes a solar-collecting material designed to absorb solar energy. The bottom layer includes a heat-emitting material designed to transfer heat energy into passing air in an interior space to thereby heat the interior space.

太陽光集熱システム

Resumen de: WO2025169570A1

A solar heat collection system 1 comprises a plurality of solar heat collection members 10 installed on an installation object 5 constituting a building 2. Each solar heat collection member 10 has a hollow part 10a, a light-receiving surface 10b, a facing surface 10c, and a non-heat-insulating part 10d for performing convection heat transfer with ambient air. Each solar heat collection member 10 is installed on the installation object 5 in an installation orientation in which the facing surface 10c is inclined with respect to the installation object 5 so as to form a space together with the installation object 5. The plurality of solar heat collection members 10 are arranged with a prescribed installation interval L therebetween.

OUTDOOR THERMAL ENERGY PANELS

Resumen de: WO2025166458A1

A thermal energy system includes an outdoor panel having a first surface exposed outwardly to an outdoor environment. The first surface is an emissive and reflective surface. The outdoor panel is in heat exchange relationship with an air passage adapted to be connected to a ventilation system of a building or process. A selective layer can be applied onto a second surface of the panel opposite to the first surface thereof. A system may be provided to pivot the panel from a first position in which the emissive surface faces the outdoor environment and a second position in which the selective surface faces the outdoor environment. The panel can be perforated and depression can be formed in the emissive surface to collect water between the perforations when the thermal panel is used in a cooling mode. The emissive and reflective side of the panel can be oriented to redirect solar radiations towards a solar collector to improve the performance thereof.

FOUNDATION MEMBERS FOR REACTIVE SOILS AND METHODS AND MACHINES FOR INSTALLING SAME

Resumen de: US2025257542A1

A method of embedding a threaded foundation component in ground with a layer of reactive soil with a combined drilling and driving machine includes: with an automated controller executing a control program, controlling the machine to begin an automated embedment operation to drive a threaded foundation component into a reactive soil; with the automated controller, controlling the machine to decouple a feed rate of the component from a rotary speed rate of the component to cause sheering of the soil around the foundation component by threads of the foundation component; and with the automated controller, controlling the machine to recouple the feed rate of the component to rotary speed rate of the component to reduce sheering of the soil around the foundation component by the threads of the foundation component until a target embedment depth for the foundation component is reached.

SOLAR HEAT COLLECTION SYSTEM

Resumen de: WO2025169570A1

A solar heat collection system 1 comprises a plurality of solar heat collection members 10 installed on an installation object 5 constituting a building 2. Each solar heat collection member 10 has a hollow part 10a, a light-receiving surface 10b, a facing surface 10c, and a non-heat-insulating part 10d for performing convection heat transfer with ambient air. Each solar heat collection member 10 is installed on the installation object 5 in an installation orientation in which the facing surface 10c is inclined with respect to the installation object 5 so as to form a space together with the installation object 5. The plurality of solar heat collection members 10 are arranged with a prescribed installation interval L therebetween.

FLASHING PANEL FOR TILED ROOF

Resumen de: EP4600435A1

There is disclosed a flashing panel for covering an interruption in an interrupted tile layer of a tiled roof, the interruption being where a portion of a tile of the interrupted tile layer is removed, the flashing panel comprising: a panel base comprising a first base section and a second base section; and an offset portion connecting the first base section to the second base section, wherein: the offset portion is configured to extend away from the panel base; the flashing panel is firm; and the panel base is configured to lie on the interrupted tile layer, the offset portion is configured to be positioned in the interruption of the interrupted tile layer such that the offset portion lies closer to a lower tile layer than the panel base, the interrupted tile layer overlaid on and in contact with the lower tile layer.

Flashing panel for tiled roof

Resumen de: GB2637925A

There is disclosed a flashing panel for covering an interruption in an interrupted tile layer of a tiled roof, the interruption being where a portion of a tile of the interrupted tile 5 layer is removed, the flashing panel comprising: a panel base comprising a first base section and a second base section; and an offset portion connecting the first base section to the second base section, wherein: the offset portion is configured to extend away from the panel base; the flashing panel is firm; and the panel base is configured to lie on the interrupted tile layer, the offset portion is configured to be positioned in the 10 interruption of the interrupted tile layer such that the offset portion lies closer to a lower tile layer than the panel base, the interrupted tile layer overlaid on and in contact with the lower tile layer.

Calculation of Cooling/Heating Loads and Seasonal Thermal Energy Storage System Capacity for Melon Greenhouse using Energy Analysis Program

Resumen de: KR20250119819A

화석연료는 현대사회의 주요 에너지원이지만 CO2 배출로 인한 지구온난화와 기후변화의 중요한 원인이기도 하다. 2022년 전 세계 CO2 배출량은 36.8 기가톤으로 사상 최고치를 기록했다. 전 세계 국가들은 CO2 배출량을 줄이고 이를 산업화 이전 수준으로 유지하기 위해 노력하고 있다. 이에 우리나라는 화력발전을 완전히 중단하고 탄소배출량을 줄이는 등 탄소중립을 달성하기 위해 노력하고 있다. 농업 부문에서는 2018년 대비 탄소 배출량을 37.7% 줄이겠다는 목표를 세웠다. 한국의 대부분 농장은 온실 난방에 화석 연료를 사용한다. 이에 따라 농업부문에서도 온실가스 가열을 위한 화석연료의 대안으로 재생에너지를 활용하려는 관심이 높아지고 있다. 반면, 멜론은 다른 작물에 비해 성장에 더 높은 온도가 필요한 내열성 작물이며, 겨울에 온실에서 재배되는데 겨울철 난방을 위해 상당한 화석 연료가 필요한다. 따라서 멜론의 재배를 위하여 신재생에너지를 활용 화석연료의 소비를 줄일 필요가 있다. 상기와 같은 문제를 해결하고자, 여름 또는 겨울의 온실의 난방부하를 계산하는 작기난방부하 계산단계; 및 상기 작기 난방부하 계산단계에서 계산된 난방부하에 상기 작기 동안에 태양열 난방시스템에서 부담할 수 있는 냉난방�

Disposición constructiva aplicada en el conjunto caja y soporte para la instalación de paneles fotovoltaicos

Resumen de: CL2025000887A1

Se refiere a un conjunto (1) que está compuesto por una caja (2) formada por la base (4), que alberga un par de soportes (3) diseñados para sostener la estructura (ES) de un panel fotovoltaico (PV). La caja (2) tiene ranuras verticales (5) en la cara externa, que se convierten en nervaduras de refuerzo (6) en la parte interna. La base (4) tiene un seccionamiento central (7) que crea dos alojamientos (8A) y (8B) para el llenado de lastre (L); el perímetro superior (S) de la base (4) está conformado por un borde (9) que, en la cara posterior (P), está elevado (10) y presenta un borde horizontal (9A) y un borde curvo (9B) con tres orificios (F1). El borde (9) se convierte en un borde inclinado (9C) en la cara frontal (F); el par de soportes (3) tiene un borde (11) en la parte inferior (IN) con una curva (11A) alineada con el borde curvo (9B) de la base. Este borde curvado tiene pliegues de 90° en los extremos, formando dos solapas (12) y contiene orificios (F2) equidistantes, además de alojamientos extremos (13) para las varillas (14) que conectan los soportes. Cada solapa (12) también tiene orificios (F3) y está cerrada lateralmente por una chapa (15) con canales longitudinales (16) que refuerzan la estructura.

FRACTAL TEXTURED HIGH EFFICIENCY SOLAR ABSORBER COATINGS

Resumen de: US2025251175A1

In one aspect, the disclosure relates to a solar absorber comprising light-absorbing multiscale fractal textured surfaces. The disclosure also relates to methods of making the same.

A METHOD OF INSTALLING A HEAT TRANSFER PANEL

Resumen de: WO2024069189A1

A method of installing a heat transfer panel to a building, the building including: a load bearing structure for bearing the load of the building and transferring the load to a foundation of the building; and a façade including a transparent element for permitting light to pass therethrough, wherein the transparent element has an internal side and an external side, and the method including: a) providing a heat transfer panel including a frame, and opposing first panel member and second panel members defining a chamber for receiving a fluid heat transfer medium; b) placing the heat transfer panel to the internal side of the transparent element so that least a portion of the heat transfer panel coincides with at least a portion of the transparent element to permit light passing through the transparent element to transfer energy to the heat fluid transfer medium during use; and after placing the heat transfer panel in step b), fixing the heat transfer panel relative to the façade.

Method of bioinsulating a solar collector module and collector module made using this method

Resumen de: PL447646A1

Przedmiotem zgłoszenia jest sposób izolacji kolektorów słonecznych i hybrydowych paneli PVT za pomocą bioizolacji w postaci włókien celulozowych pochodzących z recyklingu i kolektor, hybrydowy panel PVT wykonany tym sposobem. Sposób bioizolacji modułu kolektora słonecznego charakteryzuje się tym, że w tylnej zmontowanej części (2) obudowy kolektora wykonuje się co najmniej dwa otwory (8), a następnie kolektor ustawia się i mocuje w obrotowym precyzyjnym przyrządzie ustalająco-mocującym, po czym w pomieszczeniu o temperaturze minimum 20°C do 22°C, mocuje się przystawkę magnetyczną z rurą tłoczącą urządzenia tłocząco-dozującego włókna celulozowe do jednego z dwóch otworów (8) tylnej części (2) obudowy kolektora i wtłacza się, dozuje włókna celulozowe o gęstości 27 - 65 kg/m3 i wilgotności nie większej 23%, pod ciśnieniem do 350 mbar z prędkością maksymalnie 350 kg/h i równomiernie rozprowadza się je wypełniając przestrzeń pomiędzy tylną częścią (2) obudowy kolektora a zamontowaną folią (6) absorbcyjną, otaczając powierzchnię od dołu i z boku rur osadzonego absorbera (4) rurowego do minimum 55% średnicy rurek, tworząc zbitą warstwę izolującą bioizolacjną (5) maksimum do grubości 50 mm, a następnie po bioizolacji (5) powstałe otwory (8) uszczelnia się zatyczkami (9).

A system for mounting solar panels

Nº publicación: NO20240097A1 04/08/2025

Solicitante:

Laiq Thomas [NO]

Resumen de: WO2025165235A1

A system (10) for setting of solar panels in different heights and angles is provided in the present invention The system comprising a base member (12); first supporting rails (14a, 14b); second supporting rails (14c, 14d); and an upper mounting rail 16, where the first supporting rails (14a, 14b) are connected with one side the base member 12, the second supporting rails (14c, 14d) are connected with an opposite side of the base member (12), and the upper mounting rail (16) is joined horizontally in between the first supporting rails (14a, 14b) and the second supporting rails (14c, 14d), where a long longitudinal passage (26) on each of the second supporting rails (14c, 14d) provides slidable movement between the first supporting rails (14a, 14b) with the second supporting rails (14c, 14d), and enables adjusting heights and angles of the first supporting rails (14a, 14b) and the second supporting rails (14c, 14d) with the base member (12), thereby enabling setting of the solar panels in different heights and angles.