mhurhangee/patent-ind-claim-en huggingface dataset:
A single or double skin external facade cladding system, comprising: • An interior skin used as an air gap along the facade, • In the double skin embodiment, an external skin used for forming a second air gap, • An interior wall panel in the section facing the indoor environment, • An external wall panel in the section facing the outdoor environment, • In the double skin embodiment, an intermediate panel between the interior wall panel and the external wall panel , • A horizontal profile in which an upper vent and a lower vent can be located, • A vertical profile supporting the facade panels, said cladding system characterized by further comprising: • An upper vent which is located inside the horizontal profile on the upper section of the interior wall panel and which can be used for supply or exhaust purposes, • A lower vent which is located inside the horizontal profile on the lower section of the interior wall panel and which can be used for supply or exhaust purposes, • A vent damper which allows regulating the flow rate of the supply air or suction air , • A central heating-cooling and air-conditioning system to which the supply air or suction air is transferred, • Ventilation ducts that deliver the supply air to the central heating-cooling and air-conditioning system , • An air regulating damper which regulates the air flow rate within a center heating-cooling and air-conditioning system , and • A junction box which connects the ventilation ducts to the interior skin or external skin of the facade. • An interior skin used as an air gap along the facade, • In the double skin embodiment, an external skin used for forming a second air gap, • An interior wall panel in the section facing the indoor environment, • An external wall panel in the section facing the outdoor environment, • In the double skin embodiment, an intermediate panel between the interior wall panel and the external wall panel , • A horizontal profile in which an upper vent and a lower vent can be located, • A vertical profile supporting the facade panels, said cladding system characterized by further comprising: • An upper vent which is located inside the horizontal profile on the upper section of the interior wall panel and which can be used for supply or exhaust purposes, • A lower vent which is located inside the horizontal profile on the lower section of the interior wall panel and which can be used for supply or exhaust purposes, • A vent damper which allows regulating the flow rate of the supply air or suction air , • A central heating-cooling and air-conditioning system to which the supply air or suction air is transferred, • Ventilation ducts that deliver the supply air to the central heating-cooling and air-conditioning system , • An air regulating damper which regulates the air flow rate within a center heating-cooling and air-conditioning system , and • A junction box which connects the ventilation ducts to the interior skin or external skin of the facade.
A fluid state identification device comprising a fluid state identification unit having a sensor part and a support part for supporting the sensor part , and comprising a cover surrounding the fluid state identification unit, wherein, in a case where a longitudinal direction of the fluid state identification device is treated as a vertical direction and the fluid state identification devise is seen from the support part to the sensor part , in the fluid state identification unit, the support part has a front surface part and a rear surface part which are located opposite to each other and the sensor part is located on the front surface part side; a lower opening for communicating a lower part of an area between the cover and the fluid state identification unit with an outside and an upper opening for communicating an upper part of the area between the cover and the fluid state identification unit with the outside are formed in the cover; a first fluid flow route running through a front area (AF) adjacent to the front surface part of the support part from the lower opening to the upper opening and a second fluid flow route running through a rear area (AR) adjacent to the rear surface part of the support part from the lower opening to the upper opening are formed inside the cover ; wherein a vertical passage (P) adjacent to the sensor part is formed in the front area (AF); the vertical passage (P) is surrounded by a left side wall (WL) located left of the sensor part , a right side wall (WR) located right of the sensor part , the front surface part of the support part , and the cover ; an upper part and an lower part thereof being open; characterized in that both of the lower opening and the upper opening are located at the rear area (AR) side among the front area (AF) side and the rear area (AR) side when seen from the support part toward the sensor part ; and both of the lower opening and the upper opening are located along the same vertical line.
Apparatus for generating a supply of air at positive pressure for the amelioration or treatment of a respiratory disorder, comprising: a first chamber ; a second chamber ; at least one inlet tube structured and configured to allow ambient air to enter the first chamber; at least one flow tube structured and configured to allow air to pass from the first chamber to the second chamber; and a blower structured and configured to produce a flow of air at positive pressure, wherein the blower is positioned in the first chamber and structured and configured to receive air from the second chamber , wherein the blower includes a housing structured and configured to sealingly separate air flow through an interior of the housing from the first chamber , and characterized in that the at least one inlet tube is axially spaced from the at least one flow tube. a first chamber ; a second chamber ; at least one inlet tube structured and configured to allow ambient air to enter the first chamber; at least one flow tube structured and configured to allow air to pass from the first chamber to the second chamber; and a blower structured and configured to produce a flow of air at positive pressure, wherein the blower is positioned in the first chamber and structured and configured to receive air from the second chamber , wherein the blower includes a housing structured and configured to sealingly separate air flow through an interior of the housing from the first chamber , and characterized in that the at least one inlet tube is axially spaced from the at least one flow tube.
Iron comprising an ironing soleplate comprising at least one steam outlet orifice and a heating body comprising a steam chamber connected by a steam distribution circuit to the at least one steam outlet orifice , the steam chamber having a bottom wall comprising a water injection zone on which water is intended to be injected to produce steam, the heating body comprising a first electrical heating resistance extending into a first zone of the bottom wall of the steam chamber and a second electrical heating resistance extending into a second zone of the bottom wall of the steam chamber , the bottom wall of the steam chamber comprising an intermediate zone extending between the first and second zones, characterised in that the water injection zone of the bottom wall of the steam chamber comprises a surface configured to channel water flowing over the water injection zone in the direction of the intermediate zone when the iron rests flat on the ironing soleplate .
An emergency interface system (S) between two separate rail vehicles comprising at least one electrically braked rail vehicle (V), the system being suitable for being carried aboard a carriage , in particular an end carriage, of the electrically braked rail vehicle, characterised in that the system (S) comprises at least: - a pneumatic control line connectable between the two separate rail vehicles, - a pressure modulation device , an input of which is adapted to be connected to an electric emergency brake line (BFU), and an output of which is adapted to be connected to said pneumatic control line , - a pressure measuring device , an input of which is adapted to be connected to said pneumatic control line and an output of which is adapted to be connected to said electric emergency brake line (BFU). - a pneumatic control line connectable between the two separate rail vehicles, - a pressure modulation device , an input of which is adapted to be connected to an electric emergency brake line (BFU), and an output of which is adapted to be connected to said pneumatic control line , - a pressure measuring device , an input of which is adapted to be connected to said pneumatic control line and an output of which is adapted to be connected to said electric emergency brake line (BFU).
A method of producing a hollow support from a fiber composite material, comprising at least the following method steps: (a) providing a molded body , formed as a hollow body, from a fiber composite material, including reinforcing fibers and a soluble plastic matrix made from a matrix material soluble using a solvent; (b) arranging a vacuum setup including at least one, preferably several, film-like layers, or a pressure hose, on the outer surface of the molded body ; (c) depositing the reinforcing fibers of the hollow support on the outer surface of the vacuum setup or pressure hose arranged on the outer surface of the molded body to form a hollow support preform ; (d) arranging the hollow support preform in an outer tool ; (e) infiltrating the reinforcing fibers of the hollow support with matrix material; (f) generating a negative pressure between the vacuum setup and the inner surface of the outer tool or a positive pressure between the outer surface of the molded body and the pressure hose; (g) consolidating the fiber composite of the hollow support made from reinforcing fibers and matrix material with the formation of an outer surface of the hollow support integrally molded with the inner surface of the outer tool ; (h) removing the consolidated hollow support from the outer tool ; (i) removing the soluble plastic matrix of the molded body by dissolving using a solvent; (j) removing the reinforcing fibers of the molded body and of the vacuum setup via one of the front sides of the hollow support , wherein the reinforcing fibers of the hollow support are deposited in a braided form in method step (c). (a) providing a molded body , formed as a hollow body, from a fiber composite material, including reinforcing fibers and a soluble plastic matrix made from a matrix material soluble using a solvent; (b) arranging a vacuum setup including at least one, preferably several, film-like layers, or a pressure hose, on the outer surface of the molded body ; (c) depositing the reinforcing fibers of the hollow support on the outer surface of the vacuum setup or pressure hose arranged on the outer surface of the molded body to form a hollow support preform ; (d) arranging the hollow support preform in an outer tool ; (e) infiltrating the reinforcing fibers of the hollow support with matrix material; (f) generating a negative pressure between the vacuum setup and the inner surface of the outer tool or a positive pressure between the outer surface of the molded body and the pressure hose; (g) consolidating the fiber composite of the hollow support made from reinforcing fibers and matrix material with the formation of an outer surface of the hollow support integrally molded with the inner surface of the outer tool ; (h) removing the consolidated hollow support from the outer tool ; (i) removing the soluble plastic matrix of the molded body by dissolving using a solvent; (j) removing the reinforcing fibers of the molded body and of the vacuum setup via one of the front sides of the hollow support ,
A rotary connector comprising: a stator ; a rotor disposed so as to be relatively rotatable relative to the stator ; a flexible printed circuit board housed within an annular space between the stator and the rotor and connected at both ends thereof to the stator and the rotor , respectively; and a lead block integrally holding a plurality of external connection terminals (10, 11, 16. 27) connected to the flexible printed circuit board, the lead block being fixed to at least one of the rotor and the stator , wherein the flexible printed circuit board has connection lands to which the external connection terminals (10, 11, 16. 27) are connected via solder; characterized by a holding member holding a region including the connection lands of the flexible printed circuit board between the lead block and the holding member ; and wherein, in the holding member , a first holding portion positioning and fixing a portion, located within the annular space, of the flexible printed circuit board within the annular space, and a second holding portion holding the region including the connection lands of the flexible printed circuit board between the lead block and the second holding portion are integrally formed. a stator ; a rotor disposed so as to be relatively rotatable relative to the stator ; a flexible printed circuit board housed within an annular space between the stator and the rotor and connected at both ends thereof to the stator and the rotor , respectively; and a lead block integrally holding a plurality of external connection terminals (10, 11, 16. 27) connected to the flexible printed circuit board, the lead block being fixed to at least one of the rotor and the stator , wherein the flexible printed circuit board has connection lands to which the external connection terminals (10, 11, 16. 27) are connected via solder; characterized by a holding member holding a region including the connection lands of the flexible printed circuit board between the lead block and the holding member ; and wherein, in the holding member , a first holding portion positioning and fixing a portion, located within the annular space, of the flexible printed circuit board within the annular space, and a second holding portion holding the region including the connection lands of the flexible printed circuit board between the lead block and the second holding portion are integrally formed.
A catalyst composition for producing hydrocarbons comprising: a Fischer-Tropsch synthesis catalyst that contains at least one type of metal exhibiting activity in Fischer-Tropsch reaction and manganese carbonate; and a zeolite serving as a solid acid, wherein the presence of manganese carbonate in the catalyst may be confirmed through a structural analysis by X-ray diffraction, solid acids are those that exhibit Bronsted acidity or Lewis acidity on the solid surface, and those that exhibit activity for homogeneous and heterogeneous acid-catalyzed reactions, and wherein the catalyst composition is obtainable by impregnating manganese carbonate with a Fischer-Tropsch active metal species, followed by drying and then calcination at a temperature in the range of 150 to 350 °C. a Fischer-Tropsch synthesis catalyst that contains at least one type of metal exhibiting activity in Fischer-Tropsch reaction and manganese carbonate; and a zeolite serving as a solid acid, wherein the presence of manganese carbonate in the catalyst may be confirmed through a structural analysis by X-ray diffraction, solid acids are those that exhibit Bronsted acidity or Lewis acidity on the solid surface, and those that exhibit activity for homogeneous and heterogeneous acid-catalyzed reactions, and wherein the catalyst composition is obtainable by impregnating manganese carbonate with a Fischer-Tropsch active metal species, followed by drying and then calcination at a temperature in the range of 150 to 350 °C.
A bending tool having a longitudinal-offset measuring device , for use in a bending machine as a part of a bending tool arrangement in which a sheet metal to be bent is arranged, wherein the bending tool comprises a tool body having a longitudinal extension , said longitudinal extension being oriented in parallel to a bending line, and wherein two contact surfaces or at least one contact edge are formed in parallel to this longitudinal extension and oriented in the direction of the sheet metal to be bent, characterized in that a sensor for determining a longitudinal offset of the sheet metal is arranged in the region of the contact edge or in a contact surface , wherein a sensing portion of the sensor is oriented in the direction of a sheet metal to be bent.
A method for mapping quality of service, QoS, flows to data radio bearers, the method comprising: determining , by a communication device, a cumulative data volume of a first QoS flow; and determining , by the communication device, that the cumulative data volume of the first QoS flow meets a specified data threshold, and based thereon: mapping , by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting , by the communication device, a packet of the first QoS flow over the first data radio bearer. determining , by a communication device, a cumulative data volume of a first QoS flow; and determining , by the communication device, that the cumulative data volume of the first QoS flow meets a specified data threshold, and based thereon: mapping , by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting , by the communication device, a packet of the first QoS flow over the first data radio bearer. mapping , by the communication device, the first QoS flow to a first data radio bearer, where a maximum data volume of the first data radio bearer is less than a maximum data volume of the first QoS flow; and transmitting , by the communication device, a packet of the first QoS flow over the first data radio bearer.
Thermoinsulating tile for a combustion chamber of a gas turbine, comprising: a thermoinsulating material body (9; 109) having a first face (10; 110) and a second face (11; 111); a sealed chamber (18; 118) encapsulated in the thermoinsulating material body (9; 109) between the first face (10; 110) and the second face (11; 111) and containing a marker substance (20; 120), having at least a component which is in the liquid state at least at a temperature of use of the thermoinsulating tile. a thermoinsulating material body (9; 109) having a first face (10; 110) and a second face (11; 111); a sealed chamber (18; 118) encapsulated in the thermoinsulating material body (9; 109) between the first face (10; 110) and the second face (11; 111) and containing a marker substance (20; 120), having at least a component which is in the liquid state at least at a temperature of use of the thermoinsulating tile.
A vehicle comprising: an engine ; an electric power generating device configured to generate electric power by dynamic power of the engine ; an electric storage device ; an outlet configured to be connected to an electric load outside of the vehicle ; a wireless communication device configured to perform wireless communication in at least one of a first communication system and a second communication system, the first communication system being a communication system in which communication of the wireless communication device with a portable terminal is established without passing through a relay point , and the second communication system being a communication system in which the communication of the wireless communication device with the portable terminal is established while passing through the relay point ; and an electronic control unit configured to execute feed of electric power in one of a first feed mode and a second feed mode, the first feed mode being a mode in which electric power of at least one of the electric power generating device and the electric storage device is supplied to the electric load when the engine is acting, the second feed mode being a mode in which electric power of the electric storage device is supplied to the electric load and the engine is stopped, characterized by the electronic control unit being configured to enable the first feed mode to be selected by an operation of the portable terminal performed by a user only when a communication in the first communication system is established between the portable terminal and the vehicle . an engine ; an electric power generating device configured to generate electric power by dynamic power of the engine ; an electric storage device ; an outlet configured to be connected to an electric load outside of the vehicle ; a wireless communication device configured to perform wireless communication in at least one of a first communication system and a second communication system, the first communication system being a communication system in which communication of the wireless communication device with a portable terminal is established without passing through a relay point , and the second communication system being a communication system in which the communication of the wireless communication device with the portable terminal is established while passing through the relay point ; and an electronic control unit configured to execute feed of electric power in one of a first feed mode and a second feed mode, the first feed mode being a mode in which electric power of at least one of the electric power generating device and the electric storage device is supplied to the electric load when the engine is acting, the second feed mode being a mode in which electric power of the electric storage device is supplied to the electric load and the engine is stopped, characterized by the electronic control unit being configured to enable the first feed mode to be selected by an operation of the portable terminal performed by a user only when a communication in the first communication system is established between the portable terminal and the vehicle .
A composition for promoting hair growth, containing, as an active ingredient, a compound represented by the following formula 1 or a salt thereof: wherein R is such that the compound represented by formula 1 is any one selected from the group consisting of 2-methylbutyryl-D-pantetheine, 3-methylbutyryl-D-pantetheine, cinnamoyl-D-pantetheine, 4-pentenoyl-D-pantetheine, 10-undecenoyl-D-pantetheine, 2,4-dihydroxybenzoyl-D-pantetheine and a compound having the following formula: wherein R is such that the compound represented by formula 1 is any one selected from the group consisting of 2-methylbutyryl-D-pantetheine, 3-methylbutyryl-D-pantetheine, cinnamoyl-D-pantetheine, 4-pentenoyl-D-pantetheine, 10-undecenoyl-D-pantetheine, 2,4-dihydroxybenzoyl-D-pantetheine and a compound having the following formula: