mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor structure, comprising: - a mass airflow measurement device inserted into a sensor insertion port provided in an intake air tube component including an intake air tube and fixed to the intake air tube; and - a pressure measurement device mounted in a housing structural component of the mass airflow measurement device for measuring pressure inside the intake tube, wherein - a pressure intake port connecting the pressure measurement device to an inside of the intake air tube is provided in the housing structural component, and - an opening portion of the pressure intake port is provided on a side face of the housing structural component, wherein the pressure intake port has a cross-sectional area expanded at a position adjacent to the main air flow passage , wherein the pressure intake port forms an enlarged opening , wherein the enlarged opening is provided on a side face of the housing structural component parallel to an air-flowing direction, and wherein the opening portion has an elongated shape in the air-flow direction, characterized in that : the opening portion is divided into a plurality of blocks by partition walls , and disposed such that an upper surface of each partition wall is lower than an outer wall of the housing structural component. - a mass airflow measurement device inserted into a sensor insertion port provided in an intake air tube component including an intake air tube and fixed to the intake air tube; and - a pressure measurement device mounted in a housing structural component of the mass airflow measurement device for measuring pressure inside the intake tube, wherein - a pressure intake port connecting the pressure measurement device to an inside of the intake air tube is provided in the housing structural component, and - an opening portion of the pressure intake port is provided on a side face of the housing structural component, wherein
A thermal pad for promoting heat transfer between a column heating module and a mobile phase of a liquid chromatography system by covering a section of tubing carrying the mobile phase to effectuate a uniform heating of the mobile phase, the thermal pad comprising: a silicone layer , the silicone layer having a reinforcement stiffener for reducing stretching of the silicone layer, and a tacky surface on at least a first side of the silicone layer; a heat resistant polyester resin film layer coupled to a second side of the silicone layer; and a notched portion in only one corner of the thermal pad, the notched portion defined by a first edge extending vertically from a top edge of the thermal pad and a second edge extending horizontally from a side edge of the thermal pad towards the first edge, wherein the first edge is perpendicular to the second edge. a silicone layer , the silicone layer having a reinforcement stiffener for reducing stretching of the silicone layer, and a tacky surface on at least a first side of the silicone layer; a heat resistant polyester resin film layer coupled to a second side of the silicone layer; and a notched portion in only one corner of the thermal pad, the notched portion defined by a first edge extending vertically from a top edge of the thermal pad and a second edge extending horizontally from a side edge of the thermal pad towards the first edge, wherein the first edge is perpendicular to the second edge.
A method of wireless communication between a user equipment, UE, and a base station, the method being performed by one of the UE or the base station and comprising: identifying a set of tones of a first symbol, a center portion of the set of tones, a head portion of the set of tones, and a tail portion of the set of tones; applying a first weighting window to the center portion of the set of tones, a second weighting window to the head portion of the set of tones, and a third weighting window to the tail portion of the set of tones in a weighted overlap and add, WOLA, procedure, the second and third weighting windows being longer than the first weighting window to reduce inter-channel interference; obtaining a first transmission waveform for the first symbol based at least in part on the applying; transmitting the first transmission waveform ; repeating the identifying and the applying for a second set of tones of a second symbol to obtain a second transmission waveform for the second symbol; overlapping and adding the first transmission waveform and the second transmission waveform ; and transmitting the overlapped and added first transmission waveform and second transmission waveform . identifying a set of tones of a first symbol, a center portion of the set of tones, a head portion of the set of tones, and a tail portion of the set of tones; applying a first weighting window to the center portion of the set of tones, a second weighting window to the head portion of the set of tones, and a third weighting window to the tail portion of the set of tones in a weighted overlap and add, WOLA, procedure, the second and third weighting windows being longer than the first weighting window to reduce inter-channel interference; obtaining a first transmission waveform for the first symbol based at least in part on the applying; transmitting the first transmission waveform ; repeating the identifying and the applying for a second set of tones of a second symbol to obtain a second transmission waveform for the second symbol; overlapping and adding the first transmission waveform and the second transmission waveform ; and transmitting the overlapped and added first transmission waveform and second transmission waveform .
An intravenous (IV) set comprising: a silicone rubber tube having an outside surface and a wall thickness; and a layer of a gas barrier material covering the outside surface of the silicone rubber tube , characterized in that the layer of gas barrier material having a tensile strength at elongation that is less than a tensile strength at elongation of the silicone rubber tube measured at an elongation from 50-200% according to ASTMD412 of Volume 09.01 of the 2010 Annual Book of ASTM Standards, wherein the layer of gas barrier material has an oxygen permeability less than 1x10 9 cm 3 ·cm / (cm 2 ·s·cmHg). a silicone rubber tube having an outside surface and a wall thickness; and a layer of a gas barrier material covering the outside surface of the silicone rubber tube , characterized in that the layer of gas barrier material having a tensile strength at elongation that is less than a tensile strength at elongation of the silicone rubber tube measured at an elongation from 50-200% according to ASTMD412 of Volume 09.01 of the 2010 Annual Book of ASTM Standards, wherein the layer of gas barrier material has an oxygen permeability less than 1x10 9 cm 3 ·cm / (cm 2 ·s·cmHg).
A thrust reverser tertiary lock apparatus comprising: a probe configured to be affixed to an aircraft engine frame and comprising a shaft having a barb at a first end and configurable to a first configuration and a second configuration; a receiver configured to be affixed to a thrust reverser transcowl slider or door, said receiver configured to accommodate the barb and comprising a housing having an end wall having an aperture to a cavity defined within the housing, the aperture shaped to permit escapement of the barb from the cavity in the first configuration and prevent escapement of the barb from the cavity in the second configuration, such that the barb is retained within the cavity in the second configuration, wherein the aperture is rotationally asymmetric relative to an axis and the barb is rotationally asymmetric about the axis between the first configuration and the second configuration, such that the barb is escapable from the receiver through the aperture in the first configuration and the barb is interfered with by the end wall such that escapement of the barb from the cavity is prevented in the second configuration; and a rotary actuator configured to rotate the barb about the axis, wherein the barb is rotatable by the rotary actuator between the first configuration and the second configuration. a probe configured to be affixed to an aircraft engine frame and comprising a shaft having a barb at a first end and configurable to a first configuration and a second configuration; a receiver configured to be affixed to a thrust reverser transcowl slider or door, said receiver configured to accommodate the barb and comprising a housing having an end wall having an aperture to a cavity defined within the housing, the aperture shaped to permit escapement of the barb from the cavity in the first configuration and prevent escapement of the barb from the cavity in the second configuration, such that the barb is retained within the cavity in the second configuration, wherein the aperture is rotationally asymmetric relative to an axis and the barb is rotationally asymmetric about the axis between the first configuration and the second configuration, such that the barb is escapable from the receiver through the aperture in the first configuration and the barb is interfered with by the end wall such that escapement of the barb from the cavity is prevented in the second configuration; and a rotary actuator configured to rotate the barb about the axis, wherein the barb is rotatable by the rotary actuator between the first configuration and the second configuration.
A method (200; 300), comprising: receiving (206; 306), at a user equipment, a message including a service rejection sent by a network; starting (208; 308), at the user equipment, in response to the received message including the service rejection, a timeout period; waiting, at the user equipment, to send an attach request to the network until at least one of a radio resource control connection release is received from the network or the timeout period expires; characterized by : sending , by the user equipment, subsequent to the waiting, the attach request via an existing radio resource control connection, when the timeout period expires and a radio resource control connection release for the existing radio resource control connection has not been received at the user equipment; and sending , by the user equipment, subsequent to the waiting, the attach request via another radio resource control connection, when a radio resource control connection release for the existing radio resource control connection is received at the user equipment and the timeout period has not expired. receiving (206; 306), at a user equipment, a message including a service rejection sent by a network; starting (208; 308), at the user equipment, in response to the received message including the service rejection, a timeout period; waiting, at the user equipment, to send an attach request to the network until at least one of a radio resource control connection release is received from the network or the timeout period expires; characterized by : sending , by the user equipment, subsequent to the waiting, the attach request via an existing radio resource control connection, when the timeout period expires and a radio resource control connection release for the existing radio resource control connection has not been received at the user equipment; and sending , by the user equipment, subsequent to the waiting, the attach request via another radio resource control connection, when a radio resource control connection release for the existing radio resource control connection is received at the user equipment and the timeout period has not expired. sending , by the user equipment, subsequent to the waiting, the attach request via an existing radio resource control connection, when the timeout period expires and a radio resource control connection release for the existing radio resource control connection has not been received at the user equipment; and sending , by the user equipment, subsequent to the waiting, the attach request via another radio resource control connection, when a radio resource control connection release for the existing radio resource control connection is received at the user equipment and the timeout period has not expired.
Device for electrically contacting an electrically heatable catalytic converter in an exhaust system for motor vehicles with internal combustion engines for treating exhaust gases, which device is designed for electrically contacting a plurality of conductor tracks , which are arranged within an interior space that is surrounded by an outer wall of the device , through the outer wall , wherein one or more electrodes which can be electrically contacted through the outer wall are arranged in the interior space , each of which electrodes electrically contacts two or more of the conductor tracks in the interior space , wherein the device has, in the interior space , one or more conductor track carriers which each carry one of the conductor tracks , characterized in that in each case one of the conductor tracks is arranged on a surface of a respective conductor track carrier and an electrically insulating insulation coating , which is interrupted above a contact area of the conductor track for electrically contacting the conductor track in order to electrically contact the conductor track through the outer wall , is formed on the surface and the conductor track .
A surfing device comprising at least one fluid projecting means and at least one fluid projecting structure for supporting and positioning said fluid projecting means , wherein said fluid projecting structure is arranged for supporting said fluid projecting means at one or more fluid projecting positions, a surface positioned such that said fluid is projected from said plurality of fluid projecting positions away from said surface and said fluid projecting means is arranged to project fluid from said one or more positions to enable a person on a surf board to surf via said projected fluid upon a surfing surface that is created via interaction by the underneath surface of said surf board and said projected fluid without making any significant contact with the surface , the surfing surface being positioned relative to each of said plurality of fluid projecting positions a distance therefrom in a direction of projection of said fluid , characterized in that said surface further comprises fluid relief means arranged for removing excess fluid from surface .
A method of linear friction welding, the method comprising: a friction phase comprising oscillating a first workpiece relative to a second workpiece with a surface of the first workpiece being forced against a surface of the second workpiece, such that a plasticised layer is formed at the interface between the first and second workpieces; characterised in that the friction phase is divided into a plurality of sub-phases, each sub-phase being configured to form a plasticised layer at the interface between the first and second workpieces, each plasticised layer comprising a stagnation zone; wherein the stagnation zone of one sub-phase is offset from the stagnation zone of another sub-phase. a friction phase comprising oscillating a first workpiece relative to a second workpiece with a surface of the first workpiece being forced against a surface of the second workpiece, such that a plasticised layer is formed at the interface between the first and second workpieces; characterised in that the friction phase is divided into a plurality of sub-phases, each sub-phase being configured to form a plasticised layer at the interface between the first and second workpieces, each plasticised layer comprising a stagnation zone; wherein the stagnation zone of one sub-phase is offset from the stagnation zone of another sub-phase.
A sealing device for sealing a standard interface from outside environmental influences, wherein the sealing device enables a connection through a wall , comprising: an outer sealing housing that can be arranged on the wall , wherein the outer sealing housing has a first fastening element , wherein the first fastening element has a first thread ; and a fastening apparatus that is designed to engage with the first fastening element , and wherein the fastening apparatus is a fastening nut that can be screwed on the first thread , characterized in that the first thread has at least one axial thread notch, wherein the first thread is divided into at least two thread parts, wherein the at least one axial thread notch is designed to engage at least partially with the wall, and the sealing device tightly seals the standard interface against outside environmental influences in an unplugged state in which a plug-in connector is not connected to the standard interface , and in a plugged-in state in which one or more plug-in connectors are connected to the standard interface due to a first fastening element engaging with the fastening apparatus . an outer sealing housing that can be arranged on the wall , wherein the outer sealing housing has a first fastening element , wherein the first fastening element has a first thread ; and a fastening apparatus that is designed to engage with the first fastening element , and wherein the fastening apparatus is a fastening nut that can be screwed on the first thread , characterized in that the first thread has at least one axial thread notch, wherein the first thread is divided into at least two thread parts, wherein the at least one axial thread notch is designed to engage at least partially with the wall, and the sealing device tightly seals the standard interface against outside environmental influences in an unplugged state in which a plug-in connector is not connected to the standard interface , and in a plugged-in state in which one or more plug-in connectors are connected to the standard interface due to a first fastening element engaging with the fastening apparatus .
Process for thermal conversion of aluminum chloride hydrate into aluminum oxide and gaseous hydrogen chloride by partially decomposing the aluminum chloride hydrate into a decomposition reactor by heating to a temperature between 120 and 400 °C and then calcining the partially decomposed aluminum chloride hydrate in the calcining reactor to aluminum oxide at a temperature between 850 and 1200 °C, characterized in that the aluminum chloride hydrate is admixed with aluminum oxide in an intensive mixer with a mass ratio between 1:1 and 10:1 aluminum chloride hydrate to aluminum oxide and that the resulting mixture is fed into the decomposition reactor which is a fluidized bed reactor.
A mobile robot system comprising a mobile robot adapted to transmit a signal while traveling in a traveling region; and a beacon adapted to receive the signal transmitted from the mobile robot, wherein the beacon is adapted to receive the signal which is transmitted over 360 degrees from the mobile robot, the system being characterized in that the beacon is adapted to transmit a response signal to the mobile robot to report that the signal of the mobile robot has been received when the mobile robot has approached an approach region of the beacon; and wherein the mobile robot is adapted to perform an avoidance navigation to prevent collision with the beacon when the mobile robot receives the response signal from the beacon.
A method for light adaptation of the eyes of a driver of a vehicle when exiting a tunnel, wherein the method comprises: - determining a tunnel exit position (TEP), and - changing a light source luminous flux of at least one light source in the vehicle as the vehicle approaches the tunnel exit position (TEP) in response to the determination of the tunnel exit position (TEP) wherein the at least one light source is arranged to emit light of various colour and/or colour temperatures, the method being characterized in that it further comprises: - determining an input colour and/or colour temperature at the tunnel exit position (TEP) by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature. - determining a tunnel exit position (TEP), and - changing a light source luminous flux of at least one light source in the vehicle as the vehicle approaches the tunnel exit position (TEP) in response to the determination of the tunnel exit position (TEP) wherein the at least one light source is arranged to emit light of various colour and/or colour temperatures, the method being characterized in that it further comprises: - determining an input colour and/or colour temperature at the tunnel exit position (TEP) by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature. - determining an input colour and/or colour temperature at the tunnel exit position (TEP) by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature.
A force sensor characterized by comprising: an elastic body , wherein the elastic body comprises: a first structure (16-1) including three or more first elastic portions (16-4) deformable in six axial directions; three or more second structures (16-2) being arranged around the first structure at equal intervals, each second structure (16-2) including two second elastic portions (16-5) deformable in the six axial directions and a relay portion (16-6) connected between the two of second elastic portions (16-5), deformable in the six axial directions; for each second structure (16-2) two third structures (16-3) are provided, each third structure (16-3) being connected between the respective relay portion (16-6) of the second structure (16-2) and respective one of the first elastic portions (16-4) of the first structure (16-1); and for each second structure (16-2) a strain sensor being connected between the first structure (16-1), located between the two respective first elastic portions (16-4), and the respective relay portion (16-6) wherein the strain sensor is located between the two respective third structures (16-3) so as to be parallel to the two third structures (16-3). a first structure (16-1) including three or more first elastic portions (16-4) deformable in six axial directions; three or more second structures (16-2) being arranged around the first structure at equal intervals, each second structure (16-2) including two second elastic portions (16-5) deformable in the six axial directions and a relay portion (16-6) connected between the two of second elastic portions (16-5), deformable in the six axial directions; for each second structure (16-2) two third structures (16-3) are provided, each third structure (16-3) being connected between the respective relay portion (16-6) of the second structure (16-2) and respective one of the first elastic portions (16-4) of the first structure (16-1); and for each second structure (16-2) a strain sensor being connected between the first structure (16-1), located between the two respective first elastic portions (16-4), and the respective relay portion (16-6) wherein the strain sensor is located between the two respective third structures (16-3) so as to be parallel to the two third structures (16-3).