Abstract: An active insulated assembly for controlling heat transfer through insulated assemblies. The active insulated assembly includes a thermal conductor configured to actively move thermal energy from the active insulated assembly. The active insulated assembly also includes a first radiant barrier on a first side of the thermal conductor configured to reflect radiant energy back to its source and allow the assembly to resist heat transfer in either direction. The active insulated assembly further includes a second radiant barrier on a second side of the thermal conductor wherein the second side is opposite the first side, the second radiant barrier configured to reflect radiant energy back to its source and allow the assembly to resist heat transfer in either direction.

Abstract: An external-air conditioning apparatus and a ventilation system are provided, the external-air conditioning apparatus includes a fin tube type heat exchanger and a housing that stores this heat exchanger. The housing includes a base body that serves as a back side of the apparatus body and a cover body that serves as a front side of the apparatus body, and the base body and the cover body are dividable and detachable in structure. The base body has a base portion, a partitioning portion, a connecting pipe portion, a heat-exchanger-holding structure portion, and a water receiving portion. The cover body is a structure in which a front wall portion and a three-side peripheral wall portion are formed integrally with each other, and a part in which the peripheral wall portion is not formed is an inlet for external air.

Abstract: A controller controls a radiative air-conditioning equipment which cools or heats space separated from indoor, space by a radiation panel, with an air conditioner, so as to cool or heat the indoor space by a radiation effect of the radiation panel. A data collection unit collects indoor environment data and panel temperature data from an indoor environment measurement sensor and a radiation panel measurement sensor, respectively. A heat quantity determination unit acquires panel characteristics data and device characteristics data, and determines a time-series pattern of a heat quantity to be processed by the radiative air-conditioning equipment based on the acquired data and the data collected by the data collection unit. An operation instruction unit gives to the air conditioner an instruction for operating the air conditioner according to the time-series pattern determined by the heat quantity determination unit.

Abstract: A self-ventilating roofing system that comprises a rigid deck that is connected to the roof support system and has a lower horizontal opening parallel to the eave, on both slopes, and above the attic space. There is also an upper opening on either side of the ridge. A radiant barrier comprising of a reflective layer applied over the roof deck. A slice is made in the radiant barrier over the lower and upper opening of the deck to allow air to enter the lower opening and exit the upper opening. An insulated panel with vertical grooves is installed over the radiant barrier with the groove side face down. This insulated panel is made of a type of insulated material. A metal drip edge is then installed along the eave. This drip edge should be installed with an air gap between the facia and the drip edge sufficiently wide enough to allow air to enter. A vented ridge vent is then installed at the ridge to allow for the weather proof exit of the air.

Abstract: A support structure for a heating or cooling system includes a plurality of projections designed to be capable of retaining one or more thermal elements positioned adjacent thereto. The projections are positioned so as to form a first set of substantially parallel undulating channels, each channel having one of the projections forming at least a part of the inner radius of each undulation, with each projection having a recess formed in a side wall thereof facing said channel. The undulations of the channel ensure that a thermal element positioned in the channel will make contact with the projections each time it has to bend around one, without requiring spacing of the projections to squeeze the thermal element. The thermal element can thus be held securely without any play (unwanted lateral movement) in a channel that is slightly wider than the thermal element.

Abstract: In the field of building and of cooling systems there is disclosed a wall-mounted radiant cooling device for rooms, including: at least two cooling tubes positioned on two different levels adapted for cooled water to flow through; a fixing unit of the cooling tubes to the outside of the walls of the rooms. Each cooling tube includes two shaped longitudinal fins, and the radiant cooling device further includes a channel, arranged parallel to and underneath the cooling tubes, adapted to collect the condensate that is generated through contact with the hot air present in the rooms provided with the cooling tubes. The longitudinal fins of the cooling tubes are adapted to cooperate with one another to convey the condensate into the channel.

Abstract: A cooling system for removing heat generated by electrical components onboard aerospace vehicles flows coolant between an evaporator that removes heat from the component, and a condenser within the skin of the vehicle. The skin is formed from facesheets comprising multiple layers of polymer resin reinforced with meshes of single and double wall nanotubes. The nanotubes conduct the heat directionally so as to both distribute the heat over the skin and direct the heat to the outer surface of the skin where the heat can be carried away by air flowing over the skin. The skin may also include conductive carbon foam surrounding the condenser to reduce thermal resistance between the condenser and the facesheets.

Abstract: A direct heat exchange system uniformly transfers heat through a multiphase substance, such as a refrigerant, to a barrier that emits heat radiantly and convectively. The system solely uses the multiphase substance to exchange heat between the multiphase substance and the barrier. No intermediary fluids are used. A heat exchange portion, such as a heat pump, absorbs and emits heat and transfers it to the multiphase substance. A tube portion carries the multiphase substance to the barrier. The heat is directly exchanged between the tube and the barrier. The barrier emits radiant heat or absorbs heat. A tube fastener fastens the tube to the barrier. A thermal mass portion stores heat behind the barrier. A dehumidification coil helps prevent indoor condensation and tempers the temperature of the air proximal to the barrier by drying the air. A decorative panel covers the tube portion and the thermal mass portion.

Abstract: A set of floor panels is intended for installing a floor in a room. The set comprises a plurality of first floor panels having a common shape and dimension, and one or more second floor panels showing an adaptation of the common shape and/or the common dimension. The adaptation is performed corresponding to the aforementioned room. A method for composing such set of floor panels.

Abstract: An environmental room for controlling temperature and/or humidity levels at very close uniformity control levels, and at reduced energy requirements. Air flow of the system is divided such that only a portion of total air flow for the room is passed through the temperature and/or humidity air conditioning components, while the remainder of the air flow remains untreated. The treated and untreated air flow is then homogeneously mixed to obtain air having the required temperature and/or humidity levels. By passing only a portion of total air flow through the temperature and/or humidity control components, the required size and capacity of these components can be reduced, and energy requirements and costs for the environmental room can also be reduced. In addition, previously unattainable tolerance and uniformity levels are achieved.

Abstract: The invention relates to a building panel intended for creating heating and/or cooling walls of buildings, comprising: a base element defined by an upper face, a lower face and several lateral faces, circulation means (12) for the circulation of a heat-transfer or cooling fluid, which are arranged on the inside of said base element, a substantially flat conducting element, fixed to the upper face of the base element so as to cover it entirely or almost entirely, said conducting element having good thermal conductivity, mechanical connection means secured to said base element, said mechanical connection means being able to allow removable attachment of said building panel to an identical or similar building panel arranged adjacent to the latter, fluidic-connection means designed to allow the heat-transfer or cooling fluid to circulate between said building panel and an identical or similar building panel attached thereto, leak detection means able to detect a leak of heat-transfer or cooling fluid at the lower

Abstract: Disclosed is a heating module and a method of manufacturing thereof. The method comprises arranging a first conductive layer on a first surface of an intermediate insulating layer; making a channel on a second surface of the intermediate insulating layer; arranging a heating cable in the channel; filling the channel with a conductive filling material to cover the heating cable arranged in the channel; and attaching a second conductive layer to the second surface of the intermediate insulating layer with a conductive adhesive coating.

Abstract: The method of construction of a wall heating panel and a wall heating panel consists in constructing an aluminium multi-channel collector, preferably with one phase transition channel, connecting it inseparably with vertical aluminium heating elements, arranging the heating elements in the grooves of a dry wall construction board, preferably magnesium, and filling the space between the grooves and the heating elements with elastic compound, and then applying paper—aluminium foil laminate onto the whole surface of the board.

Abstract: A mass storage chassis assembly configured to accommodate a predetermined number of storage drive failures is provided. The mass storage chassis assembly in one example includes a chamber, a plurality of working storage drives in the chamber, and an outside deck including one or more empty storage drive receptacles outside the chamber.

Abstract: The present invention relates to a modular panel for thermal energy transfer particularly configured for being used in ceilings and walls, comprising a heat-insulating layer (2) forming a supporting structure demarcated by a lower face (2A), an upper face (2B), two side faces (2C, 2D) and two end faces (2E, 2F). Said panel (1) comprises at least one conducting plate (3) attached to the lower face (2A). Said conducting plate (3) is formed by a groove (31) embedded in the heat-insulating layer (2), defining a longitudinal cavity (32) which is configured to house a hydraulic pipe (6), and defining a longitudinal opening (34) which allows inserting the hydraulic pipe (6); a transfer plate (35) extending on the lower face (2A) and closure means (4) configured to seal the longitudinal opening (34) and press the hydraulic pipe (6) against the groove (31).

Abstract: A technology includes a first plate including a first pair of legs defining a first channel; a second plate including a second pair of legs defining a second channel; a first block supporting the first plate and the second plate such that the first block is positioned between the first channel and the second channel; a second block including a U-shaped trench with a first open end portion and a second open end portion, wherein the first open end portion leads to the first channel, wherein the second open end portion leads to the second channel; a tube extending within the U-shaped trench; and a U-shaped cover covering the U-shaped trench.

Abstract: The invention relates to a radiator (1, 11) with a heating water duct system, within which heating water is able to be transported from a heating water intake (3, 15) to a heating water outlet (4, 16), wherein the heating water duct system comprises: heating segments (5,6,12,13,14) with respectively an internal cavity for receiving heating water, which in a ready-to-operate state of the radiator (1, 11) are arranged over one another in gravitation direction, and which respectively have an inlet opening for the supply of heating water and an outlet opening for the removal of heating water; a connecting pipe (7, 17), which connects the outlet opening of a first heating segment (5, 12) with the inlet opening of a second heating segment (6, 13); wherein the heating water inlet (3, 15) is connected to the inlet opening of the first heating segment (5, 12), and wherein the second heating segment (6, 13) in the ready-to-operate state of the radiator (1, 11), viewed in gravitation direction, is arranged above th

Abstract: A system of spacecraft radiators comprising pre-formed thermal-transfer modules joined together by at least one solid-state welding process. Critical failure points are eliminated by forming the thermal-transfer modules as a single unitary piece, preferably by an extrusion process. The thermal-transfer modules allow the formation of larger radiator assemblies, which may comprise a wide range of sizes and physical geometries.

Abstract: Aerosols can be created by filament stretching and breaking of Newtonian and non-Newtonian fluids by applying a strain to and stretching the fluid. The fluid is stretched along a strain pathway and forms a fluid filament. The fluid filament is caused to break into droplets that can be harvested to form a mist or aerosol. Such a system for aerosol creation can include a pair of counter-rotating rollers that are positioned adjacent to each other that stretch the fluid or a pair of pistons that move toward and away from each other to stretch the fluid.

Abstract: An active insulated assembly for controlling heat transfer through insulated assemblies. The active insulated assembly includes a thermal conductor configured to actively move thermal energy from the active insulated assembly. The active insulated assembly also includes a first radiant barrier on a first side of the thermal conductor configured to reflect radiant energy back to its source and allow the assembly to resist heat transfer in either direction. The active insulated assembly further includes a second radiant barrier on a second side of the thermal conductor wherein the second side is opposite the first side, the second radiant barrier configured to reflect radiant energy back to its source and allow the assembly to resist heat transfer in either direction.

Abstract: A method for cooling or heating a building is provided. An air flow can be created in an air duct and the air flow can be cooled or heated by an air conditioning system or furnace. The cooled or heated air flow can then pass through a heat exchanger connected to a radiant heating loop running through a floor or slab with a liquid circulating through them. When the airflow is being cooled or heated by the air conditioning system or furnace, the air flow will alter the temperature of the liquid circulating through the heat exchanger herefore the temperature of the slab. When the temperature of the slab varies from the temperature of the building, liquid that has been circulated through the radiant heating loop can be used to alter the temperature of the air flow passing through the heat exchanger.

Abstract: A floor underlayment for positioning and mounting a heating element beneath a finished floor is described. The floor underlayment comprises a plurality of studs extending upwardly from a base layer, where the outer wall of the studs forms an acute angle with the base layer and a smooth inner wall defines a cavity within each stud. Mounting corridors formed by rows or columns of adjacent studs are sized to receive and retain a heating element.

Abstract: The present invention relates to a device for cooling a wall of a component, where a fluid flow flows parallel to the wall, with at least one inflow duct, the center axis of which being arranged inclined to the plane of the wall, with a groove provided in the wall, into which issues the inflow duct, where a wall of the groove is designed contoured downstream of a discharge opening of the inflow duct and has an inflow edge facing the discharge opening, characterized in that the groove extends on both sides of the discharge opening and adjacent to the inflow edge at an angle to the direction of the fluid flow, and has a narrowing width.

Abstract: A system of spacecraft radiators comprising pre-formed thermal-transfer modules joined together by at least one solid-state welding process. Critical failure points are eliminated by forming the thermal-transfer modules as a single unitary piece, preferably by an extrusion process. The thermal-transfer modules allow the formation of larger radiator assemblies, which may comprise a wide range of sizes and physical geometries.

Abstract: A method and apparatus are configured for providing thermal comfort (i.e., climatic conditioning) within an interior space of a building structure in multiple climate zones including hot and humid climates using very low energy consumption. Multiple water vapor phase change cycles are provided within a period of time where only a single such water vapor phase change cycle would typically take place under naturally occurring ambient conditions. These multiple water vapor phase change cycles are generated through artificially creating conditions within a hygroscopic heat sink mass for promoting water vapor phase change cycle. Advantageously, in combination with such artificially promoted water vapor phase change cycles, embodiments of the present invention provide hygroscopic properties and heat sink masses made from materials that can adsorb and retain thermal energy and that exhibit water vapor sorption/desorption attributes commonly associated with compositions referred to as desiccants.

Abstract: Technologies are generally described for a window and a method for cooling a room including a window. In some examples, the window may include a first pane and a second pane spaced from and in optical communication with the first pane defining a generator chamber. An evaporator chamber may be disposed in the window with a pressure so that the evaporator chamber is effective to receive heat from the room and boil a refrigerant to produce a first vapor. An absorber chamber may be effective to receive and condense the first vapor on an absorbent to produce a solution. The generator chamber may be effective to receive heat through the first pane, receive the solution and heat the solution to produce a second vapor. A condenser chamber may be effective to receive the second vapor and cool the second vapor to produce the refrigerant.

Abstract: A heating and cooling system including a heat pump and a heat storage tank. Stored heat or cold is released from the heat storage tank for heating or cooling a house for a whole day. The heating and cooling system has five working modes: compressor heating or cooling, compressor charging, compressor discharging for heating or cooling, water pump charging and water pump discharging for heating or cooling.

Abstract: A system for regulating the internal temperature of a structure such as a domicile or office is described. The system is configured to employ a series of inter-wall channels, designed to direct air originating from at least one HVAC unit and at least one heat exchanger in order to equalize the temperature within the walls, ceiling, and the flooring of a conventional structure. In this manner, the system employs air as an effective insulator, supplementing the existing fiberglass insulation of a structure with a dynamic, temperature sensitive means of insulation, helping to keep heating and cooling costs down, and limiting strain on the HVAC units of the structure.

Abstract: A drying apparatus for temporary location within a damp or waterlogged room is disclosed. The apparatus includes sensors to sense the level of temperature and humidity within the room, a heater to provide heat for the room, an air circulation fan for selectively circulating heated air within the room or selectively exhausting warm and humid air from the room and for allowing outside ambient air into the room. The apparatus being adapted to cyclically continue until the sensed humidity reaches a required level, the apparatus thereafter indicating, directly or indirectly, the completion of the drying process. A method of drying a room using such apparatus is also disclosed which employs a technique whereby the rate of change of the temperature increase is used to determine when humid air should be exhausted from the room. A time limit can also be use to determine when said exhausting takes place.

Abstract: A system for installing tubing of hydronic thermal control systems in the walls, including ceilings, of buildings. It allows for the stable incorporation of the tubing in the walls while ensuring good thermal conductivity between the tubing and the building's room. The system features a wall including a hydronic thermal management system. The wall comprises a vertically-extending wall support structure, tubing panels secured to the wall support structure, the panels being constructed from wood material, tubing in the tubing panels for carrying a heat transfer fluid, and drywall panels secured over the tubing panels. A filling material is applied between the tubing and the drywall panels. Also a high thermally conductive layer, such as aluminum foil, is used between the filling material and the drywall panels or between the filling material and the tubing panels.

Abstract: A panel, for retaining a heating or cooling tube relative to a substrate, has a standoff extending from a primary flap, wherein the standoff includes a tube contacting surface. A lateral fold extends from the standoff and includes a jaw having a tube retaining surface, wherein the tube contacting surface and the tube retaining surface are located to define a tube retaining channel in a closed position of the jaw. The panel can be formed of a single piece of sheet metal, wherein the sheet metal and configuration of the panel bias the jaw to the closed position.

Abstract: The present invention relates to a modular panel for thermal energy transfer particularly configured for being used in ceilings and walls, comprising a heat-insulating layer (2) forming a supporting structure demarcated by a lower face (2A), an upper face (2B), two side faces (2C, 2D) and two end faces (2E, 2F). Said panel (1) comprises at least one conducting plate (3) attached to the lower face (2A). Said conducting plate (3) is formed by a groove (31) embedded in the heat-insulating layer (2), defining a longitudinal cavity (32) which is configured to house a hydraulic pipe (6), and defining a longitudinal opening (34) which allows inserting the hydraulic pipe (6); a transfer plate (35) extending on the lower face (2A) and closure means (4) configured to seal the longitudinal opening (34) and press the hydraulic pipe (6) against the groove (31).

Abstract: A hydronic radiant flooring heating system includes a pipe having pipe sections, and a grid of a thermally conductive material. The pipe sections are arranged substantially parallel to one another along a first axis, where there is a second axis perpendicular to the first axis. The pipe is to carry a heated liquid to radiantly heat a flooring under which the pipe is situated. The grid is situated relative to the sections. A portion of the grid is positioned substantially parallel to the second axis, and has an increased gauge to provide for lateral heat flow from the sections along the second axis. Heating of the flooring under which the pipe and the grid are situated is substantially uniform at least partially due to the increased gauge of the portion of the grid positioned substantially parallel to the second axis, while permitting wider spacing between adjacent of the pipe sections.

Abstract: A heat radiating pipe (2) that is disposed in a hot water mat (1) is extended from the hot water mat (1) to provide an extended portion that is used as connecting pipes (2a and 2b) to a heat source machine (11). The construction makes it possible to prevent a water leak as there is no connection therebetween, and reduces costs for parts and installation as no connection tool, such as a coupler, is used. Further, guide pieces (13 and 14) attached with cover members (17) are arranged at positions where the connecting pipes (2a and 2b) are extended, and the connecting pipes (2a and 2b) are disposed by using the guide pieces (13 and 14), so as to efficiently utilize heat radiated from the connecting pipes (2a and 2b), and to prevent thermal loss.

Abstract: A heating and cooling system for a building having a passive source of heat energy, a heat sink reservoir to store heat energy in, and a first heat exchange system operating a temperature of 15 degrees Celsius or less and being operatively connected to said reservoir. There is a second heat exchange system operating at a temperature of above 15 degrees Celsius which is also operatively connected to the heat sink reservoir and a thermal mass wall which is connected to the heat exchanger systems. In one aspect, the invention provides a dynamic wall having a first insulating layer on an interior surface of the wall, a thermal mass adjacent to the first insulating layer, a second insulating layer on an outside surface of the thermal mass and a heat exchanger operatively connected to said thermal mass to add or subtract heat from said thermal mass wall.

Abstract: Installation to obtain a radiative heating wall includes a panel form heating modular structure of ceiling height, arranged vertically with the rear face resting against a wall. Each structure includes a plurality of spaced-apart and parallel vertical members fixed to a back wall. Each member overlies a heat exchanger arranged horizontally with fluid circulation ducts, and has quick connect fittings for several protective and decorative panels. Each vertical member includes an upper member and a lower member aligned with one another and sandwiching the heat exchanger. Each modular structure has bottom and top ventilation gratings, and air conducting passages defined by strips situated between each pair of consecutive vertical members, the panels and the back wall.

Abstract: A panel system has an insulating material with a first channel disposed over a surface of the insulating material. A transporter is disposed over the first channel. A thermal transfer medium is disposed over the surface of the first panel to attain desired surface characteristics. The first panel includes a second channel intersecting the first channel. A second panel includes a second channel. The first panel is adjacent to the second panel. The first and second channels of the adjacent first and second panels are aligned. The transporter is disposed over the first and second channels. The first and second panels are mounted over a mounting surface. Keyways are formed in the channels. Retention clips are disposed over the keyways. Panels include panel wings with hinges mounted over the panel wings. The thermal transfer medium includes graphite. The transporter includes tubing.

Abstract: A room enclosure assembly on a base of a concrete ceiling or wall is disclosed. In an embodiment, it includes metal sheet material having contact surfaces toward the base and web faces leading away from the base and heat exchange surfaces. Folding regions are formed between the sub-faces of the sheet material. The contact surfaces are fastened to the base area via a heat conducting connection layer. The heat-exchange faces are provided with a coating layer. The heat flow between the base and the heat exchange surfaces is especially efficient because it takes place in the continuous metal sheet material. Through-openings in the heat exchange surfaces, together with the use of a suitable coating layer on the heat exchange surfaces, allow for the acoustic insulating effect and optical appearance to be optimized.

Abstract: A system for installing tubing of hydronic thermal control systems in the walls of buildings. It allows for the stable incorporation of the tubing in the walls while ensuring good thermal conductivity between the tubing and the building's room. The system features a wall including a hydronic thermal management system. The wall comprises a vertically-extending wall support structure, tubing panels secured to the wall support structure, the panels being constructed from wood material, tubing in the tubing panels for carrying a heat transfer fluid, and drywall panels secured over the tubing panels. A filling material is applied between the tubing and the drywall panels. Also a high thermally conductive layer, such as aluminum foil, is used between the filling material and the drywall panels or between the filling material and the tubing panels.

Abstract: A radiant heating assembly for use with systems for heating an enclosed space by circulating a fluid through a closed tubing arrangement is provided. The inventive radiant heating assembly is made up of a radiant heating panel and tubing. The radiant heating panel is made up of a radiant heat transfer plate having a length and center line, and an elongated C-shaped or side opening receptacle that extends along the center line of the plate for receiving the tubing. A plurality of depressions extends along an inner surface of the C-shaped receptacle that interfaces with the plate. The tubing conforms to these depressions, thereby allowing the radiant heating assembly to achieve greater radiant heat dissipation capacity and efficiency.

Abstract: Disclosed is a heat collection system for a roof, the system including a roof deck, a membrane upwardly adjacent of the roof deck; a fluid channel disposed between the membrane and the roof deck, the fluid channel having a defined entry port and a defined exit port, the entry port and the exit port being disposed in fluid communication via the fluid channel.

Abstract: A structure and method of controlling building temperature are provided utilizing both solar and geo-exchange means.

Abstract: A system for installing tubing of hydronic thermal control systems in the walls, including ceilings, of buildings. It allows for the stable incorporation of the tubing in the walls while ensuring good thermal conductivity between the tubing and the building's room. The system features a wall including a hydronic thermal management system. The wall comprises a vertically-extending wall support structure, tubing panels secured to the wall support structure, the panels being constructed from wood material, tubing in the tubing panels for carrying a heat transfer fluid, and drywall panels secured over the tubing panels. A filling material is applied between the tubing and the drywall panels. Also a high thermally conductive layer, such as aluminum foil, is used between the filling material and the drywall panels or between the filling material and the tubing panels.

Abstract: Temperature-control system used for heating or cooling in a method for controlling temperature of a component includes connected temperature-control device, temperature-control arrangement, supply line, and return line. The system additionally has a controller having a valve, an actuator, a supply temperature sensor, and a return temperature sensor. A temperature difference between the supply temperature and the return temperature of a fluid circulating in the system is registered using the supply temperature sensor and the return temperature sensor and also a regulator. Proceeding from this temperature difference, the regulator causes the actuator to set a degree of opening of the valve so the temperature difference is in a selected value range. The valve always has a minimal degree of opening in the open state.

Abstract: A radiant heating panel has a receptacle for heat transfer tubing and divided into immediately-adjacent tracks, each for receiving respective heat transfer tubing, and with a partition extending between the immediately-adjacent tracks and defining a wall therebetween.

Abstract: A device for tempering a room includes at least one component that forms a thermal accumulator and has a surface oriented towards the room. Tubes that are thermally coupled to the component can be traversed by a heating or cooling medium. The tubes are integrated into a panel that contains expanded graphite or is made of expanded graphite. The panel is in areal thermal contact with the surface of the component that faces towards the room.

Abstract: An HVAC duct or utilicore for substantially containing air flowing longitudinally therethrough has at least one wall comprised of a poured high thermal mass material with at least one pipe embedded therein during a pouring process, the at least one pipe for circulating a fluid throughout the at least one wall at a temperature that is different from an ambient temperature of the air flowing through the utilicore, for effecting heat transfer through the at least one wall between the fluid in the at least one conduit and the air flowing through the utilicore. A side wall of an elongate monolithic poured concrete building construction module, having a substantially planar main wall and at least one side wall extending substantially parallel to a longitudinal axis, having a pipe embedded therewithin, may form at least a portion of an element that defines the utilicore.

Abstract: A ceiling or wall element for fixing to a ceiling or a wall is provided with a frame that has a base plate which can be fixed to the ceiling and/or to the wall. A heating or cooling register is arranged in or on the frame. A non-woven fabric and a perforated graphite film are disposed between the base plate of the frame and the heating or cooling register.

Abstract: A structure of a dry heating system, and a method for constructing the same are disclosed. An upper board stacked on a heat radiator has a double-layer structure comprising first upper board elements and second upper board elements in order to prevent steps from being formed at seaming portions formed on the upper portion of the dry heating system, thereby maintaining flatness of the upper board, and reducing any bending of the upper board, in which the first upper board elements constitute a lower portion of the double-layer structure, and serve to protect the heat radiator while supporting a weight load, and the second upper board elements constitute an upper portion of the double-layer structure, and serve to maintain the flatness of the upper board by removing the steps, thereby ensuring excellent quality in construction of the dry heating system.

Abstract: A radiant heating system comprising a substantially hollow housing having detachable baffle plates internally positioned within the housing. The housing has an inlet and outlet for a flow of coolant to enter into and leave the housing, and a top plate sealing the upper surface of the housing has openings defined therein for insertion of heating elements to project into the housing and be in direct contact with the coolant to heat it. The inlet and the outlet are interconnected with piping to form a closed fluid flow circuit. Two or more baffle plates are used to increase turbulence of the coolant within the housing as it flows through, and temporarily keep coolant in the housing longer to heat it.