mhurhangee/ep-ind-claims huggingface dataset:
Fuel cell system, comprising a plurality of fuel cell modules, each module comprising a stack of cells of fuel cells and a device for clamping the stack, the clamping device comprising at least one clamp (30, 31) comprising a plate and at least one collector (36A, 36B, 36C, 36D, 36E, 36F) for supplying the cells of the stack with oxidising or reducing fluid or for extracting reaction products from the stack, the plate comprising a bearing face bearing against one end of the stack and at least one lateral connection face disposed facing a connection face of another adjacent plate belonging to the clamp of another module attached to said module, the or each collector (36A, 36B, 36C, 36D, 36E, 36F) being formed inside the plate and opening at a mouth on the connection face and facing a mouth on the connection face of the other adjacent plate, so that the collectors (36A, 36B, 36C, 36D, 36E, 36F) of the two plates are in fluid communication, characterised in that the plate is formed of a single piece of material and is connected to the other adjacent plate by specific joining means producing a connection only between those two plates.
Method to deposit a hydrophilic nanocoating onto a substrate, wherein the coating is deposited by means of a continuous wave low pressure and low power plasma polymerization process in a plasma chamber, wherein the applied power during the plasma polymerization process is an essentially constant value of between 0.02 and 2.50 Watt per liter volume of the plasma chamber, and using a monomer according to CH 2 = CR 4 - CH 2 - O - R 5, wherein R 4 is H or an alkyl, e.g. -CH 3, and wherein R 5 is H, an alkyl or an alkenyl, and wherein R 5 preferably comprises one ore multiple hydrophilic functional groups, such as hydroxyl groups and/or carbonyl groups.
A vacuum cleaner comprising: an inlet; an outlet; an airflow passageway extending between the inlet and outlet, the passageway having a flow axis; a fan for creating an airstream along the passageway from the inlet to the outlet; and a baffle device, characterized in that the baffle device comprises: a first set of baffles extending across the passageway; and a second set of baffles extending across the passageway at a point located downstream of the first set of baffles, the baffles of each set being separated from each other by elongate openings, wherein each baffle comprises: a longitudinal upstream surface directed towards the inlet which is inclined relative to the flow axis; and a longitudinal downstream surface directed towards the outlet which is inclined relative to the flow axis, the baffles of the second set of baffles being transposed perpendicular to the flow axis with respect to the baffles of the first set of baffles, such that the baffles of the second set of baffles are aligned with respective elongate openings between the baffles of the first set of baffles along the flow axis and such that the baffles of the first set of baffles are aligned with respective elongate openings between the baffles of the second set of baffles along the flow axis. an inlet; an outlet; an airflow passageway extending between the inlet and outlet, the passageway having a flow axis; a fan for creating an airstream along the passageway from the inlet to the outlet; and a baffle device, a first set of baffles extending across the passageway; and a second set of baffles extending across the passageway at a point located downstream of the first set of baffles, the baffles of each set being separated from each other by elongate openings, a longitudinal upstream surface directed towards the inlet which is inclined relative to the flow axis; and a longitudinal downstream surface directed towards the outlet which is inclined relative to the flow axis,
An electro-optic window assembly (100, 100a, 100b), comprising: a bezel having an inner edge, the bezel covering a peripheral portion of a first substantially transparent substrate and a peripheral portion of a second substantially transparent substrate; a first substantially transparent substrate comprising: a first surface with a portion in thermal communication with the bezel, a second surface, and a first peripheral edge; a second substantially transparent substrate comprising: a third surface, a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge, wherein the first and second substrates define a cavity, and the fourth surface and the inner edge of the bezel define a visible area; and an electro-optic medium at least partially filling the cavity and configured to reduce the transmission of light viewed through the electro-optic window assembly, characterized in that a distance between the inner edge of the bezel and the peripheral edges (116a, 116b) of the substrates (116, 118) is sized such that the substrates each have a theoretical maximum thermal stress of less than approximately 25 MPa upon exposure of the electro-optic window assembly to an approximately 50°C thermal gradient that exists between the peripheral portions (116b, 118b) of the substrates and the visible area. a bezel having an inner edge, the bezel covering a peripheral portion of a first substantially transparent substrate and a peripheral portion of a second substantially transparent substrate; a first substantially transparent substrate comprising: a first surface with a portion in thermal communication with the bezel, a second surface, and a first peripheral edge; a first surface with a portion in thermal communication with the bezel, a second surface, and a first peripheral edge; a second substantially transparent substrate comprising: a third surface, a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge, a third surface, a fourth surface with a portion in thermal communication with the bezel, and a second peripheral edge, wherein the first and second substrates define a cavity, and the fourth surface and the inner edge of the bezel define a visible area; and an electro-optic medium at least partially filling the cavity and configured to reduce the transmission of light viewed through the electro-optic window assembly, characterized in that a distance between the inner edge of the bezel and the peripheral edges (116a, 116b) of the substrates (116, 118) is sized such that the substrates each have a theoretical maximum thermal stress of less than approximately 25 MPa upon exposure of the electro-optic window assembly to an approximately 50°C thermal gradient that exists between the peripheral portions (116b, 118b) of the substrates and the visible area.
An antenna comprising - an array of rectangular conductor sections, located successively side by side in a first plane, mutually separated by slots of constant width; and - feed structures (16, 50, 52a,b, 54, 56a,b, 57a,b 58a,b, 96, 97) coupled to the slots, the feed structures (16, 50, 52a,b, 54, 56a,b, 57a,b 58a,b, 96, 97) comprising pairs of parallel feed conductors (52a,b), each pair comprising conductors coupled to the rectangular conductor sections on opposite sides of a respective one of the slots, characterized in that at least one of the feed structures (16, 50, 52a,b, 54, 56a,b, 57a,b 58a,b, 96, 97) comprises - a conductor loop (56a,b, 96) connected between the pair of parallel feed conductors (52a,b); - a further feed conductor (57a,b, 97) coupled to an input and/or output of the antenna, and electromagnetically coupled to the conductor loop (56a,b, 96). - an array of rectangular conductor sections, located successively side by side in a first plane, mutually separated by slots of constant width; and - feed structures (16, 50, 52a,b, 54, 56a,b, 57a,b 58a,b, 96, 97) coupled to the slots, the feed structures (16, 50, 52a,b, 54, 56a,b, 57a,b 58a,b, 96, 97) comprising pairs of parallel feed conductors (52a,b), each pair comprising conductors coupled to the rectangular conductor sections on opposite sides of a respective one of the slots, - a conductor loop (56a,b, 96) connected between the pair of parallel feed conductors (52a,b); - a further feed conductor (57a,b, 97) coupled to an input and/or output of the antenna, and electromagnetically coupled to the conductor loop (56a,b, 96).
A system, comprising: a controller, comprising: a data repository configured to store a first mapping associating a user to an application certificate and a second mapping associating the user to a user privilege; and an Object Linking and Embedding for Process Control Unified Architecture server configured to provide server access based on receiving the application certificate from an OPC UA client and enforcing the user privilege, wherein the user privilege is retrievable based on the first and the second mappings (56,58). a controller, comprising: a data repository configured to store a first mapping associating a user to an application certificate and a second mapping associating the user to a user privilege; and a data repository configured to store a first mapping associating a user to an application certificate and a second mapping associating the user to a user privilege; and an Object Linking and Embedding for Process Control Unified Architecture server configured to provide server access based on receiving the application certificate from an OPC UA client and enforcing the user privilege, wherein the user privilege is retrievable based on the first and the second mappings (56,58).
Device for determining and/or monitoring the temperature of a medium, comprising a temperature sensor (T 1) with a temperature-sensitive sensor element and at least one first and one second connection cable, wherein the sensor element is electrically connected via at least the first and the second connection cable, wherein the first connection cable is subdivided into a first and a second section, wherein the first section facing the sensor element comprises a first material and wherein the second section facing away from the sensor element comprises a second material that differs from the first material, wherein the second connection cable is produced from the second material, and wherein the first section of the first connection cable and at least one part (t) of the second connection cable establish a first differential temperature sensor (T 2) in the form of a thermal element, wherein the temperature-sensitive sensor element of the temperature sensor (T 1) is a resistance element, wherein the temperature sensor can also encompass a substrate on which the resistance element is arranged, and wherein the first connection cable and the second connection cable are connected directly to the resistance element or to the substrate on which the sensor element that is produced as a resistance element is arranged, so that a temperature gradient can be recorded directly in the location of the temperature sensor (T 1) using the first differential temperature sensor (T 2). a temperature sensor (T 1) with a temperature-sensitive sensor element and at least one first and one second connection cable, wherein the sensor element is electrically connected via at least the first and the second connection cable, wherein the first connection cable is subdivided into a first and a second section, wherein the first section facing the sensor element comprises a first material and wherein the second section facing away from the sensor element comprises a second material that differs from the first material, wherein the second connection cable is produced from the second material, and wherein the first section of the first connection cable and at least one part (t) of the second connection cable establish a first differential temperature sensor (T 2) in the form of a thermal element, wherein the temperature-sensitive sensor element of the temperature sensor (T 1) is a resistance element, wherein the temperature sensor can also encompass a substrate on which the resistance element is arranged, and wherein the first connection cable and the second connection cable are connected directly to the resistance element or to the substrate on which the sensor element that is produced as a resistance element is arranged, so that a temperature gradient can be recorded directly in the location of the temperature sensor (T 1) using the first differential temperature sensor (T 2).
A method for cutting a starting mat, panel or plate of mineral wool or porous construction material into several mats, panels or plates, comprising the following steps: - supplying a starting mat, panel or plate of mineral wool or porous construction material, the starting mat, panel or plate having a front edge, - cutting the starting mat, panel or plate into two in its thickness by means of a wire, by moving the mat, panel or plate in a direction using movement means (3, 4) that move the mat, panel or plate and comprise at least one conveyor, the wire being able to pass in a direction perpendicular to the direction of travel of the mat, panel or plate, so as to form two first mats, panels or plates, - cutting the rear edge of the two first mats, panels or plates and the front edge of two second mats, panels or plates (C, E) by moving the wire in at least a direction perpendicular both to the direction of travel of the mat, panel or plate plate and to the direction in which the wire passes, - cutting the mat, panel or plate into two in its thickness using the wire, by moving the mat, panel or plate in the direction of travel of the mat, panel or plate so as to form the two second mats, panels or plates, - repeating the steps of cutting front/rear edges and of cutting in the thickness in order to form two third, fourth, etc. mats, panels or plates. - supplying a starting mat, panel or plate of mineral wool or porous construction material, the starting mat, panel or plate having a front edge, - cutting the starting mat, panel or plate into two in its thickness by means of a wire, by moving the mat, panel or plate in a direction using movement means (3, 4) that move the mat, panel or plate and comprise at least one conveyor, the wire being able to pass in a direction perpendicular to the direction of travel of the mat, panel or plate, so as to form two first mats, panels or plates, - cutting the rear edge of the two first mats, panels or plates and the front edge of two second mats, panels or plates (C, E) by moving the wire in at least a direction perpendicular both to the direction of travel of the mat, panel or plate plate and to the direction in which the wire passes, - cutting the mat, panel or plate into two in its thickness using the wire, by moving the mat, panel or plate in the direction of travel of the mat, panel or plate so as to form the two second mats, panels or plates, - repeating the steps of cutting front/rear edges and of cutting in the thickness in order to form two third, fourth, etc. mats, panels or plates.
An isolated polypeptide having peroxygenase activity, selected from the group consisting of: (a) a polypeptide having at least 75%, at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the mature polypeptide is amino acids 1 to 246 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 75%, at least 80%, at least 85%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1, or the cDNA sequence thereof, wherein the mature polypeptide coding sequence is nucleotides 61 to 115, 197 to 437, 516 to 790, and 871 to 1037 of SEQ ID NO:1; (c) a fragment of the polypeptide of (a) or (b) that has peroxygenase activity. (a) a polypeptide having at least 75%, at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the mature polypeptide is amino acids 1 to 246 of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide having at least 75%, at least 80%, at least 85%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide coding sequence of SEQ ID NO: 1, or the cDNA sequence thereof, wherein the mature polypeptide coding sequence is nucleotides 61 to 115, 197 to 437, 516 to 790, and 871 to 1037 of SEQ ID NO:1; (c) a fragment of the polypeptide of (a) or (b) that has peroxygenase activity.
A storage medium having a game program stored thereon executable by a computer of a game apparatus wirelessly communicably connected to an input device, the input device including an electronic circuit having a wireless communication function and a battery for providing power to the electronic circuit, wherein the game program causes the computer to act as: disconnection detection means (30, S18) for detecting at least one of continuous disconnection, intermittent disconnection, and temporary disconnection, of wireless communication between the input device and the game apparatus; remaining battery amount data obtaining means (30, S57) for obtaining remaining battery amount data representing a remaining battery amount of the input device via the wireless communication; power insufficiency determination means (30, S53) for determining that the power of the input device is insufficient based on that the wireless communication is detected to be disconnected by the disconnection detection means and that the remaining battery amount data obtained by the remaining battery amount data obtaining means represents a remaining battery amount of a predetermined level or lower; and notification means (30, S55) for, when the power insufficiency determination means determines that the power is insufficient, notifying the power insufficiency. disconnection detection means (30, S18) for detecting at least one of continuous disconnection, intermittent disconnection, and temporary disconnection, of wireless communication between the input device and the game apparatus; remaining battery amount data obtaining means (30, S57) for obtaining remaining battery amount data representing a remaining battery amount of the input device via the wireless communication; power insufficiency determination means (30, S53) for determining that the power of the input device is insufficient based on that the wireless communication is detected to be disconnected by the disconnection detection means and that the remaining battery amount data obtained by the remaining battery amount data obtaining means represents a remaining battery amount of a predetermined level or lower; and notification means (30, S55) for, when the power insufficiency determination means determines that the power is insufficient, notifying the power insufficiency.
A method for manufacturing molten iron, the method comprising: providing an iron-containing by-product that includes sludge; charging a lumped carbonaceous material and a reduced iron into a melting gasification furnace; crushing the iron-containing by-product together with a fine carbonaceous material to provide a mixture to be blown through a tuyere; blowing, through the tuyere into the melting gasification furnace, oxygen and the mixture to be blown through the tuyere; and manufacturing molten iron in the melting gasification furnace wherein in the providing of the mixture to be blown through the tuyere, an average particle size of the iron-containing by-product is greater than 0 μm and less than or equal to 50 μm, wherein, in the providing of the mixture to be blown through the tuyere, a mixture having a particle size of 10 μm or less to be blown through the tuyere in the mixture to be blown through the tuyere is less than or equal to 40 wt %, wherein, in the providing of the mixture to be blown through the tuyere, a moisture content of the mixture to be blown through the tuyere is greater than 0 wt % and less than or equal to 2 wt %. providing an iron-containing by-product that includes sludge; charging a lumped carbonaceous material and a reduced iron into a melting gasification furnace; crushing the iron-containing by-product together with a fine carbonaceous material to provide a mixture to be blown through a tuyere; blowing, through the tuyere into the melting gasification furnace, oxygen and the mixture to be blown through the tuyere; and manufacturing molten iron in the melting gasification furnace wherein in the providing of the mixture to be blown through the tuyere, an average particle size of the iron-containing by-product is greater than 0 μm and less than or equal to 50 μm, wherein, in the providing of the mixture to be blown through the tuyere, a mixture having a particle size of 10 μm or less to be blown through the tuyere in the mixture to be blown through the tuyere is less than or equal to 40 wt %, wherein, in the providing of the mixture to be blown through the tuyere, a moisture content of the mixture to be blown through the tuyere is greater than 0 wt % and less than or equal to 2 wt %.
A method of passenger conveyance control, the method comprising: receiving a destination request triggering a capture of passenger identification characteristic sufficient for tracking the passenger; tracking a passenger who entered the destination request while in a waiting area; associating the passenger identification characteristic with the destination request for each passenger on an active passenger list; maintaining the passenger identification characteristic and the destination request as passenger identification data; canceling the destination request in response to the passenger leaving the waiting area; characterized by comprising: tracking the passenger to and through a sky lobby; and if the passenger does not complete the journey, cancelling an upcoming elevator service. receiving a destination request triggering a capture of passenger identification characteristic sufficient for tracking the passenger; tracking a passenger who entered the destination request while in a waiting area; associating the passenger identification characteristic with the destination request for each passenger on an active passenger list; maintaining the passenger identification characteristic and the destination request as passenger identification data; canceling the destination request in response to the passenger leaving the waiting area; characterized by comprising: tracking the passenger to and through a sky lobby; and if the passenger does not complete the journey, cancelling an upcoming elevator service.