mhurhangee/ep-ind-claims huggingface dataset:
A terahertz quantum cascade laser device, comprising: a substrate; a semiconductor stacked body including an active layer and a first clad layer, the active layer being provided on the substrate and being configured to emit a first infrared laser light and a second infrared laser light by an intersubband optical transition, the two infrared laser lights (G1, G2) having different frequencies, the first clad layer being provided on the active layer, a ridge waveguide being provided in the semiconductor stacked body, a first distributed feedback region and a second distributed feedback region being provided at an upper surface of the first clad layer to be separated from each other along an extension direction of the ridge waveguide; and a first electrode provided at the upper surface of the first clad layer, the first electrode being subdivided into a first electrode region, provided at an upper surface of the first distributed feedback region, and a second electrode region, provided at an upper surface of the second distributed feedback region and separated from the first electrode region, wherein a planar size of the first distributed feedback region is smaller than a planar size of the second distributed feedback region. a substrate; a semiconductor stacked body including an active layer and a first clad layer, the active layer being provided on the substrate and being configured to emit a first infrared laser light and a second infrared laser light by an intersubband optical transition, the two infrared laser lights (G1, G2) having different frequencies, the first clad layer being provided on the active layer, a ridge waveguide being provided in the semiconductor stacked body, a first distributed feedback region and a second distributed feedback region being provided at an upper surface of the first clad layer to be separated from each other along an extension direction of the ridge waveguide; and a first electrode provided at the upper surface of the first clad layer, the first electrode being subdivided into a first electrode region, provided at an upper surface of the first distributed feedback region, and a second electrode region, provided at an upper surface of the second distributed feedback region and separated from the first electrode region, wherein a planar size of the first distributed feedback region is smaller than a planar size of the second distributed feedback region.
A honeycomb structure comprising: a honeycomb body comprising a plurality of cells extending axially between first and second opposing end faces (20, 22) of the honeycomb body, the cells comprising intersecting porous walls; and a cement mixture deposited over a periphery of the honeycomb body to form a skin disposed on the honeycomb body, the cement mixture comprising: an organic binder, an inorganic binder, a liquid vehicle, an inorganic filler material, and an inorganic thickener comprising at least one of a hydrated magnesium aluminum silicate, alkali alumino silicate, Bentonite, Smectite, and Muscovite, wherein the organic binder and inorganic binder are disposed in the porous walls to form a barrier to skin wetting from the honeycomb body side of the skin. a honeycomb body comprising a plurality of cells extending axially between first and second opposing end faces (20, 22) of the honeycomb body, the cells comprising intersecting porous walls; and a cement mixture deposited over a periphery of the honeycomb body to form a skin disposed on the honeycomb body, the cement mixture comprising: an organic binder, an inorganic binder, a liquid vehicle, an inorganic filler material, and an inorganic thickener comprising at least one of a hydrated magnesium aluminum silicate, alkali alumino silicate, Bentonite, Smectite, and Muscovite, an organic binder, an inorganic binder, a liquid vehicle, an inorganic filler material, and an inorganic thickener comprising at least one of a hydrated magnesium aluminum silicate, alkali alumino silicate, Bentonite, Smectite, and Muscovite, wherein the organic binder and inorganic binder are disposed in the porous walls to form a barrier to skin wetting from the honeycomb body side of the skin.
Feeder house assembly for a combine harvester, comprising: a housing, a drivable feeder house shaft which is arranged in the housing and to which driver elements for transmitting torque to an endless traction means, passing partially around the feeder house shaft, with conveyor slats fastened thereto are attached, a deflection roller which is arranged in the housing and about which the endless traction means runs, a first bearing arrangement which is fastened to a first end of the feeder house shaft and is connected to the adjacent region of the housing via first mounting means, and a second bearing arrangement which is fastened to a second end of the feeder house shaft and is connected to the adjacent region of the housing via second mounting means, characterized in that the bearing arrangements (48, 92) are arranged on the inner side of the housing, and in that the first bearing arrangement is embodied as a floating bearing that is axially displaceable on the feeder house shaft and is configured such that, when the feeder house shaft is inserted into the housing, said floating bearing can be pushed into a position in which it and its mounting means do not impede the installation of the feeder house shaft in the housing, and can subsequently be moved into its final position. a housing, a drivable feeder house shaft which is arranged in the housing and to which driver elements for transmitting torque to an endless traction means, passing partially around the feeder house shaft, with conveyor slats fastened thereto are attached, a deflection roller which is arranged in the housing and about which the endless traction means runs, a first bearing arrangement which is fastened to a first end of the feeder house shaft and is connected to the adjacent region of the housing via first mounting means, and a second bearing arrangement which is fastened to a second end of the feeder house shaft and is connected to the adjacent region of the housing via second mounting means, characterized in that the bearing arrangements (48, 92) are arranged on the inner side of the housing, and in that the first bearing arrangement is embodied as a floating bearing that is axially displaceable on the feeder house shaft and is configured such that, when the feeder house shaft is inserted into the housing, said floating bearing can be pushed into a position in which it and its mounting means do not impede the installation of the feeder house shaft in the housing, and can subsequently be moved into its final position.
A flip chip ball grid array comprising: a substrate comprising a ball grid array; a ring stiffener disposed on the substrate and forming a cavity with the substrate, the ring stiffener comprising an opening; a silicon chip disposed in the cavity and mounted on contacting a side of the substrate opposite that of the ball grid array, the silicon chip exposed by the opening when the ring stiffener is attached to the substrate; a thermal interface material layer disposed on the silicon chip at the opening in the ring stiffener; an external heat sink disposed over the opening and on the thermal interface material layer; and a probe pad disposed on the substrate, wherein the opening of the ring stiffener is configured to expose a region on the substrate having the silicon chip and the probe pad, and provide access for probing the silicon chip via the probe pad. a substrate comprising a ball grid array; a ring stiffener disposed on the substrate and forming a cavity with the substrate, the ring stiffener comprising an opening; a silicon chip disposed in the cavity and mounted on contacting a side of the substrate opposite that of the ball grid array, the silicon chip exposed by the opening when the ring stiffener is attached to the substrate; a thermal interface material layer disposed on the silicon chip at the opening in the ring stiffener; an external heat sink disposed over the opening and on the thermal interface material layer; and a probe pad disposed on the substrate, wherein the opening of the ring stiffener is configured to expose a region on the substrate having the silicon chip and the probe pad, and provide access for probing the silicon chip via the probe pad.
A polymerization catalyst comprising: i) a phosphinimine catalyst; ii) an inert support; iii) a cocatalyst; and iv) a catalyst modifier; wherein the catalyst modifier is present from 0.5 to 4.5 weight percent based on the weight of i), ii) and iii) of the polymerization catalyst and comprises a compound having the formula: R 1 R 2 x N((CH 2) n OH)y where R 1 is a hydrocarbyl group having from 5 to 30 carbon atoms, R 2 is hydrogen or a hydrocarbyl group having from 1 to 30 carbon atoms, x is 1 or 0, y is 1 when x is 1, y is 2 when x is 0, each n is independently an integer from 1 to 30 when y is 2, and n is an integer from 1 to 30 when y is 1, wherein the phosphinimine catalyst has the formula: (1,2-(R *)(Ar-F)Cp)Ti(N=P(t-Bu) 3)X 2, where R * is a straight chain alkyl group, Ar-F is a perfluorinated aryl group, a 2,6 fluoro substituted phenyl group or a 2,3,5,6 fluoro substituted phenyl group, and X is an activatable ligand. R 1 R 2 x N((CH 2) n OH)y where R 1 is a hydrocarbyl group having from 5 to 30 carbon atoms, R 2 is hydrogen or a hydrocarbyl group having from 1 to 30 carbon atoms, x is 1 or 0, y is 1 when x is 1, y is 2 when x is 0, each n is independently an integer from 1 to 30 when y is 2, and n is an integer from 1 to 30 when y is 1, wherein the phosphinimine catalyst has the formula: (1,2-(R *)(Ar-F)Cp)Ti(N=P(t-Bu) 3)X 2, where R * is a straight chain alkyl group, Ar-F is a perfluorinated aryl group, a 2,6 fluoro substituted phenyl group or a 2,3,5,6 fluoro substituted phenyl group, and X is an activatable ligand.
A method for monitoring an insulation fault in an electric network for a vehicle, said electric network comprising at least one electric power system supplying electric power to one or more electric loads (152, 70, 72, 74), the at least one of said electric loads being an electric motor for propelling said vehicle, and at least one insulation resistance monitor, wherein the at least one electric power system comprises at least one electrical power source, and wherein the at least one insulation resistance monitor monitors an insulation resistance between terminal leads (136, 138) of the at least one electric power source and at least one reference potential, performing the steps of (i) disconnecting the at least one electric power source from the one or more loads (152, 70, 72, 74) by opening each terminal lead (136, 138); (ii) measuring the insulation resistance (R_isol0) between the electric circuit of at least one electrical power source and the reference potential; (iii) closing one terminal lead with the other terminal lead open; (iv) measuring the insulation resistance (R_isol1) for the total electric network; (v) closing the previously open terminal lead and opening the previously closed terminal lead; and (vi) measuring the insulation resistance (R_isol2) for the total electric network. (i) disconnecting the at least one electric power source from the one or more loads (152, 70, 72, 74) by opening each terminal lead (136, 138); (ii) measuring the insulation resistance (R_isol0) between the electric circuit of at least one electrical power source and the reference potential; (iii) closing one terminal lead with the other terminal lead open; (iv) measuring the insulation resistance (R_isol1) for the total electric network; (v) closing the previously open terminal lead and opening the previously closed terminal lead; and (vi) measuring the insulation resistance (R_isol2) for the total electric network.
A gastrointestinal implant (200, 400, 500800, 900, 1000) comprising: an anchor (205, 405, 505, 805, 905, 1005) adapted for implantation within a gastrointestinal tract of an animal; and a resistive element in communication with the anchor (205, 405, 505, 805, 905, 1005), the anchor (205, 405, 505, 805, 905, 1005) being for removably securing the resistive element in position; characterized by the anchor (205, 405, 505, 805, 905, 1005) being adapted for implantation at a position distal to the animal's pylorus, by the resistive element comprising an artificial stricture comprising an orifice (305, 325, 15, 515, 1015) retained at 5mm in diameter or less to resist the outflow of chyme from the stomach into the intestine while allowing flow of chyme; and further characterised by the resistive element comprising an elongated liner (210, 410, 510, 810, 910, 1010) defining a lumen extending beyond the orifice (305, 325, 415, 515, 1015) and through which chyme can pass. an anchor (205, 405, 505, 805, 905, 1005) adapted for implantation within a gastrointestinal tract of an animal; and a resistive element in communication with the anchor (205, 405, 505, 805, 905, 1005), the anchor (205, 405, 505, 805, 905, 1005) being for removably securing the resistive element in position; characterized by the anchor (205, 405, 505, 805, 905, 1005) being adapted for implantation at a position distal to the animal's pylorus, by the resistive element comprising an artificial stricture comprising an orifice (305, 325, 15, 515, 1015) retained at 5mm in diameter or less to resist the outflow of chyme from the stomach into the intestine while allowing flow of chyme; and further characterised by the resistive element comprising an elongated liner (210, 410, 510, 810, 910, 1010) defining a lumen extending beyond the orifice (305, 325, 415, 515, 1015) and through which chyme can pass.
Apparatus comprising at least one multi-lumen tube, wherein the tube comprises a first group of lumens and a second group of lumens, wherein the lumen(s) of the second group is/are arranged around the lumen(s) of the first group, and wherein the lumen(s) of the first group serve/s the transportation of at least one fluid, and wherein the lumen(s) of the second group is/are filled with at least one functional fluid, and wherein the apparatus furthermore comprises at least one actuator which is in communication with at least one of the second lumens and is configured such that at least one property of the functional fluid can be changed by means of the actuator, characterized in that at least one pressure sensor is provided which is configured such that it detects the pressure loss of the functional fluid generated by the lumen(s) of the second group and that the actuator is connected to the sensor and is configured in such a way that the pressure of the functional fluid is increased depending on the pressure loss measured by means of the sensor in such a way a kinking of the tube, which is assumed to be present due to the determination that the pressure loss exceeds a threshold, is counteracted by means of the lumen(s) of the second group filled with the functional fluid.
Method for data transmission in a cellular network from a wireless device, the cellular network comprising a plurality of base nodes, the plurality of base nodes comprising an active base node, which is the base node the wireless device is currently associated to, the wireless device being configured to periodically transmit data according to a periodicity related transmission mode to the active base node, the wireless device further being operated stationary, the method comprises the steps of: - providing an information from the wireless device to the active base node relating to periodicity of said periodic data transmission, - responding at the active base node to the wireless device comprising an indication relative to assigned resources for multiple transmissions, - setting a timer at the active base node relating to said periodicity, - upon expiration of the timer, reserving resources at the active base node for reception of the periodic data transmission from the wireless device, - transmitting data from the wireless device to the active base node according to the periodicity, - receiving transmitted data at active base node, - conducting an acknowledging procedure at the active base node in response to said data reception, wherein the method further comprises for the wireless device: providing information relating to periodicity of said periodic data transmission in conjunction with a non-periodic data transmission in a non-periodicity transmission mode, and said information relating to periodicity comprising a time related offset relative to said non-periodic data transmission. - providing an information from the wireless device to the active base node relating to periodicity of said periodic data transmission, - responding at the active base node to the wireless device comprising an indication relative to assigned resources for multiple transmissions, - setting a timer at the active base node relating to said periodicity, - upon expiration of the timer, reserving resources at the active base node for reception of the periodic data transmission from the wireless device, - transmitting data from the wireless device to the active base node according to the periodicity, - receiving transmitted data at active base node, - conducting an acknowledging procedure at the active base node in response to said data reception, providing information relating to periodicity of said periodic data transmission in conjunction with a non-periodic data transmission in a non-periodicity transmission mode, and said information relating to periodicity comprising a time related offset relative to said non-periodic data transmission.
A method performed by a session management function entity, SMF, in a communication system, the method comprising: determining whether to change a first user plane function, UPF, associated with a first protocol data unit, PDU, session of a terminal, the first PDU session being associated with a session and service continuity, SSC, mode 3; transmitting, to the terminal via an access and mobility function, AMF, a first message including an identity, ID, of the first PDU session, a lifetime value for maintaining the first PDU session, and information indicating a PDU session re-establishment being required, in case that the first UPF needs to be changed; and receiving, from the AMF, a second message for establishing a second PDU session of the terminal, based on the information, wherein the second message is based on a non access stratum, NAS, message generated by the terminal, and the second message includes the ID of the first PDU session and an ID of the second PDU session, wherein the second PDU session associated with a second UPF is established based on the ID of the second PDU session, and wherein the first PDU session is released by the SMF in case that a timer associated with the lifetime value is expired. determining whether to change a first user plane function, UPF, associated with a first protocol data unit, PDU, session of a terminal, the first PDU session being associated with a session and service continuity, SSC, mode 3; transmitting, to the terminal via an access and mobility function, AMF, a first message including an identity, ID, of the first PDU session, a lifetime value for maintaining the first PDU session, and information indicating a PDU session re-establishment being required, in case that the first UPF needs to be changed; and receiving, from the AMF, a second message for establishing a second PDU session of the terminal, based on the information, wherein the second message is based on a non access stratum, NAS, message generated by the terminal, and the second message includes the ID of the first PDU session and an ID of the second PDU session, wherein the second PDU session associated with a second UPF is established based on the ID of the second PDU session, and wherein the first PDU session is released by the SMF in case that a timer associated with the lifetime value is expired.
A battery cell configured to have a structure in which an electrode assembly of a cathode/separator/anode structure is mounted in a battery case formed of a laminate sheet comprising a resin layer and a metal layer in a state in which the electrode assembly are connected to electrode terminals protruding outward from the battery case, wherein the electrode assembly is configured such that separators are respectively disposed between cathodes and anodes, each of which is formed by applying a compound comprising an electrode active material to a current collector, at least a portion of an inside of the battery case corresponding to an outer circumference of the electrode assembly has an upward sloping structure in which a width of the battery case increases upward in vertical section or a downward sloping structure in which the width of the battery case increases downward in vertical section, the outer circumference of the electrode assembly corresponding to the inside of the battery case also has an upward sloping structure or a downward sloping structure, characterised in that: the battery cell is quadrangular in plane and the battery cell is formed to have an upward sloping structure or a downward sloping structure corresponding to the inside of the battery case at the other sides of the battery cell excluding sides of the battery cell at which the electrode terminals are located, and in that: an uppermost or a lowermost separator extends to wrap the slopes of the electrode assembly.
A marking fixture for marking positions (24, 30) of drill holes on a door, wherein the door in its end side is provided with a recess for an insert lock and a recess for a faceplate of the insert lock, wherein the marking fixture comprises: - an L-shaped profile part comprising a short leg intended for abutment against the end side of the door and a long leg intended for abutment against a main surface (78, 80) of the door; and - a fitted plate which with an adjustable connection is connected with the short leg and which is fittingly receivable in the recess for the faceplate, wherein the long leg is provided with at least one marking opening (22, 26, 28, 32) for marking a position (24, 30) of a drill hole, characterized in that the adjustable connection exclusively allows displacement of the fitted plate in a direction perpendicular to the long leg. - an L-shaped profile part comprising a short leg intended for abutment against the end side of the door and a long leg intended for abutment against a main surface (78, 80) of the door; and - a fitted plate which with an adjustable connection is connected with the short leg and which is fittingly receivable in the recess for the faceplate, wherein the long leg is provided with at least one marking opening (22, 26, 28, 32) for marking a position (24, 30) of a drill hole, characterized in that the adjustable connection exclusively allows displacement of the fitted plate in a direction perpendicular to the long leg.