mhurhangee/patent-ind-claim-en huggingface dataset:
A testing system for a satellite payload, the testing system comprising: a built-in testing component configured to be within or to be affixed to a satellite , the built-in testing component comprising a built-in testing component input and a built-in testing component output ; and a payload component configured to be within the satellite, the payload component comprising a payload component input communicatively connected to the built-in testing component output and a payload component output communicatively connected to the built-in testing component input , wherein the built-in testing component is configured to generate a digital test signal in response to receiving a test signal from a loopback test equipment external to the satellite , to transmit a digital test signal from the built-in testing component output to the payload component input , and to receive a digital output signal at the built-in testing component input from the payload component output . a built-in testing component configured to be within or to be affixed to a satellite , the built-in testing component comprising a built-in testing component input and a built-in testing component output ; and a payload component configured to be within the satellite, the payload component comprising a payload component input communicatively connected to the built-in testing component output and a payload component output communicatively connected to the built-in testing component input , wherein the built-in testing component is configured to generate a digital test signal in response to receiving a test signal from a loopback test equipment external to the satellite , to transmit a digital test signal from the built-in testing component output to the payload component input , and to receive a digital output signal at the built-in testing component input from the payload component output .
A fabric comprising: a plurality of conformable fluoropolymer fibers having a density less than about 1.2 g/cm 3 ; and a plurality of other non-fluoropolymer fibers; characterized in that the fluoropolymer fibers have a microstructure of an interconnected network of fibrils, with either inherent hydrophilicity, or a coating or treatment to impart hydrophilic nature to the fluoropolymer fibers having a high surface area, and wherein the fluoropolymer fibers are capable of being wetted by liquid and containing the liquid inside the microstructure of the hydrophilic fluoropolymer fibers. a plurality of conformable fluoropolymer fibers having a density less than about 1.2 g/cm 3 ; and a plurality of other non-fluoropolymer fibers; characterized in that the fluoropolymer fibers have a microstructure of an interconnected network of fibrils, with either inherent hydrophilicity, or a coating or treatment to impart hydrophilic nature to the fluoropolymer fibers having a high surface area, and wherein the fluoropolymer fibers are capable of being wetted by liquid and containing the liquid inside the microstructure of the hydrophilic fluoropolymer fibers.
A liquid cooled electric machine comprising: an internal stator having an inner surface and an outer surface provided with coil receiving slots ; an external rotor coaxial with the internal stator ; a stator cooling assembly having internal portion in contact with the inner surface of the stator , an external sleeve in contact with the outer surface of the stator to seal the coil receiving slots and an intermediate portion interconnecting the internal portion and the external sleeve ; the intermediate portion being so configured as to allow cooling liquid to flow between the internal portion and the coil receiving slots ; the stator cooling assembly including an inlet and an outlet , the internal portion being configured and sized as to be inserted in the stator , wherein the internal portion of the stator cooling assembly includes a cylindrical element having an outer surface provided with a circumferential channel defining a manifold and allowing the cooling liquid to contact the inner surface of the stator , characterised in that , the inlet leads to the manifold and the internal portion includes a plurality of longitudinal channels which are connected to the manifold such that cooling liquid is directed towards the inner surface of the stator before entering the intermediate portion . an internal stator having an inner surface and an outer surface provided with coil receiving slots ; an external rotor coaxial with the internal stator ; a stator cooling assembly having internal portion in contact with the inner surface of the stator , an external sleeve in contact with the outer surface of the stator to seal the coil receiving slots and an intermediate portion interconnecting the internal portion and the external sleeve ; the intermediate portion being so configured as to allow cooling liquid to flow between the internal portion and the coil receiving slots ; the stator cooling assembly including an inlet and an outlet , the internal portion being configured and sized as to be inserted in the stator , wherein the internal portion of the stator cooling assembly includes a cylindrical element having an outer surface provided with a circumferential channel defining a manifold and allowing the cooling liquid to contact the inner surface of the stator ,
Method for moving to a reference feed position (VPR) of a label tape with respect to a dispensing edge of a container labeller , wherein the label tape is pulled back beyond the reference feed position (VPR) by being wound back onto its supply roller and is then conveyed in the normal feed direction to the reference feed position (VPR) and stopped there, and wherein the label tape is first stored out of a loop buffer disposed between a supply roller and dispensing edge until a lower adjustment limit of the buffer size is reached and is then pulled back between the loop buffer and the dispensing edge .
Use of a wax anti-settling agent, in an automotive fuel composition, for the purpose of improving the acceleration performance of an internal combustion engine into which the fuel composition is or is intended to be introduced or of a vehicle powered by such an engine, wherein the wax anti-settling agent comprises an oil-soluble polar nitrogen compound in the form of a quaternary ammonium salt of a carboxylic acid, wherein the quaternary ammonium salt of a carboxylic acid has the formula [NR 2 R 13 R 14 ]X wherein R represents a methyl, ethyl or propyl group; R 13 represents a hydrocarbyl group, and R 14 represents a hydrocarbyl group; and X represents a monovalent carboxylate anion.
A composite 3D blob tool for a vision system having a processor that receives acquired 3D image data from an object using a 3D camera assembly comprising: a blob tool process that identifies positive 3D image data and negative 3D image data in the acquired 3D image data, and that combines the positive 3D image data that defines z-dimension height information and the negative 3D image data so as to thereby define at least one connected object, wherein the negative 3D image data comprises, at least in part, orthogonal x-y dimensions that define an absence of data with respect to the object and a shadow with respect to the object, characterized in that the shadow and the positive 3D image data define a bounding box that contains both the shadow and the positive 3D image data residing above a reference surface , and wherein the z-dimension height information is used to refine the bounding box to remove the shadow, based on: 1) knowledge of angles of rays projected by illumination associated with the 3D camera assembly and received by an image sensor of the 3D camera assembly and 2) the location of the object in a field of view of the image sensor, so that a contribution of the shadow to the object is altered based on the refined x-y dimensions of the object, wherein the blob tool process analyzes the connected object for spatial significance of the acquired 3D image data based upon calibration information in the 3D camera assembly. a blob tool process that identifies positive 3D image data and negative 3D image data in the acquired 3D image data, and that combines the positive 3D image data that defines z-dimension height information and the negative 3D image data so as to thereby define at least one connected object, wherein the negative 3D image data comprises, at least in part, orthogonal x-y dimensions that define an absence of data with respect to the object and a shadow with respect to the object, characterized in that the shadow and the positive 3D image data define a bounding box that contains both the shadow and the positive 3D image data residing above a reference surface , and wherein the z-dimension height information is used to refine the bounding box to remove the shadow, based on: 1) knowledge of angles of rays projected by illumination associated with the 3D camera assembly and received by an image sensor of the 3D camera assembly and 2) the location of the object in a field of view of the image sensor, so that a contribution of the shadow to the object is altered based on the refined x-y dimensions of the object, wherein the blob tool process analyzes the connected object for spatial significance of the acquired 3D image data based upon calibration information in the 3D camera assembly.
A method for Sidelink Relay Adaptation Protocol, in the following also referred to as SRAP, Data Protocol Data Unit, in the following also referred to as PDU, discarding, comprising: a relay UE establishes a PC5 connection with a remote UE ; and the relay UE receives a SRAP Data PDU from the remote UE ; wherein the relay UE prevents from discarding the SRAP Data PDU if the SRAP Data PDU is the first SRAP Data PDU received from the remote UE via SL-RLC1 , wherein a header of the first SRAP Data PDU contains a UE Identity/Identifier, in the following also referred to as ID, of the remote UE, and the UE ID of the remote UE is not included in any SRAP configuration of the relay UE , and wherein there is no SRAP configuration associated with the remote UE maintained in the relay UE when the first SRAP Data PDU is received from the remote UE via SL-RLC1. a relay UE establishes a PC5 connection with a remote UE ; and the relay UE receives a SRAP Data PDU from the remote UE ; wherein the relay UE prevents from discarding the SRAP Data PDU if the SRAP Data PDU is the first SRAP Data PDU received from the remote UE via SL-RLC1 , wherein a header of the first SRAP Data PDU contains a UE Identity/Identifier, in the following also referred to as ID, of the remote UE, and the UE ID of the remote UE is not included in any SRAP configuration of the relay UE , and wherein there is no SRAP configuration associated with the remote UE maintained in the relay UE when the first SRAP Data PDU is received from the remote UE via SL-RLC1.
An integrally bladed rotor comprising: a hub ; and a plurality of rotor airfoils integrally formed with the hub , and extending radially outward from an outer platform of the hub , each rotor airfoil comprising: a main body extending radially outward from a root to a tip ; a first fillet having a first radius (R1) and providing a transition from the outer platform of the hub ; and a second fillet situated adjacent to and radially outward of the first fillet , and providing a transition between the first fillet and the main body , the second fillet having a second radius (R2) that is less than the first radius (R1), characterised in that : for at least one of the rotor airfoils , the first and second fillets extend around a leading edge of the rotor airfoil , and/or a trailing edge of the rotor airfoil ; and each rotor airfoil includes a rim , wherein the first fillet provides a transition between the outer platform of the hub and the rim , and the second fillet provides a transition between the rim and the main body . a hub ; and a plurality of rotor airfoils integrally formed with the hub , and extending radially outward from an outer platform of the hub , each rotor airfoil comprising: a main body extending radially outward from a root to a tip ; a first fillet having a first radius (R1) and providing a transition from the outer platform of the hub ; and a second fillet situated adjacent to and radially outward of the first fillet , and providing a transition between the first fillet and the main body , the second fillet having a second radius (R2) that is less than the first radius (R1), characterised in that : a main body extending radially outward from a root to a tip ; a first fillet having a first radius (R1) and providing a transition from the outer platform of the hub ; and a second fillet situated adjacent to and radially outward of the first fillet , and providing a transition between the first fillet and the main body , the second fillet having a second radius (R2) that is less than the first radius (R1), characterised in that : for at least one of the rotor airfoils , the first and second fillets extend around a leading edge of the rotor airfoil , and/or a trailing edge of the rotor airfoil ; and each rotor airfoil includes a rim , wherein the first fillet provides a transition between the outer platform of the hub and the rim , and the second fillet provides a transition between the rim and the main body .
A method for wireless communication, comprising: receiving a control transmission from a base station; identifying a control channel search space that is organized according to a nested structure, the control channel search space including a plurality of control channel candidates, wherein each of the plurality of control channel candidates is associated with one or more control channel elements, CCEs, and an aggregation level, AL, wherein a first portion of the search space associated with a lower AL is a subset of a second portion of the search space associated with a higher AL and wherein a higher AL search space comprises a sum of a plurality of lower AL search spaces; decoding control channel candidates associated with the plurality of lower AL search spaces; generating log-likelihood ratio, LLR, information during the decoding; and decoding control channel candidates associated with the higher AL search space by reusing one of the LLRs previously generated during the decoding of the lower AL search spaces and searching the received control transmission to identify a control channel for the UE using the plurality of control channel candidates. receiving a control transmission from a base station; identifying a control channel search space that is organized according to a nested structure, the control channel search space including a plurality of control channel candidates, wherein each of the plurality of control channel candidates is associated with one or more control channel elements, CCEs, and an aggregation level, AL, wherein a first portion of the search space associated with a lower AL is a subset of a second portion of the search space associated with a higher AL and wherein a higher AL search space comprises a sum of a plurality of lower AL search spaces; decoding control channel candidates associated with the plurality of lower AL search spaces; generating log-likelihood ratio, LLR, information during the decoding; and decoding control channel candidates associated with the higher AL search space by reusing one of the LLRs previously generated during the decoding of the lower AL search spaces and searching the received control transmission to identify a control channel for the UE using the plurality of control channel candidates.
Device for removing ice (3; 11), in particular for use in walk-in freezers, comprising - means for generating heat, which comprises a heating element , and - means (1; 2; 6; 10) of suction , which comprises a suction head that is movable across the floor, wherein the heating element is arranged in the suction head , wherein the means (1; 2; 5; 10) of suction is designed to suck up ice crystals (3; 11) and/or water vapour that occurs and/or hot air that arises, characterised in that the means for generating heat has a plurality of openings, wherein the ice crystals and/or the water vapour and/or the hot air flow through the openings during suction and flow around the means for generating heat. - means for generating heat, which comprises a heating element , and - means (1; 2; 6; 10) of suction , which comprises a suction head that is movable across the floor,
A plasma etching method using a Faraday cage, comprising: providing a Faraday cage having a mesh portion on an upper surface thereof in a plasma etching apparatus; providing a quartz substrate having a metal mask with an opening provided on one surface of the metal mask in the Faraday cage; and patterning the quartz substrate with plasma etching, wherein a bottom surface of the Faraday cage includes a metal having a lower ionization tendency than the metal mask, and wherein the metal of the bottom surface of the Faraday cage includes a metal whose standard reduction potential is higher than a standard reduction potential of the metal mask by 1 V or more. providing a Faraday cage having a mesh portion on an upper surface thereof in a plasma etching apparatus; providing a quartz substrate having a metal mask with an opening provided on one surface of the metal mask in the Faraday cage; and patterning the quartz substrate with plasma etching, wherein a bottom surface of the Faraday cage includes a metal having a lower ionization tendency than the metal mask, and wherein the metal of the bottom surface of the Faraday cage includes a metal whose standard reduction potential is higher than a standard reduction potential of the metal mask by 1 V or more.
Tensioning device for a wired energy and/or data transmission path, having a cable guide wire stored on a winding drum , wherein the winding drum can be set in rotation by means of an associated electrical drive for winding and unwinding the cable guide wire , and having a spring accumulator , by means of which a resilient tensile force can be exerted on a wire portion unreeled from the winding drum , characterized in that the electrical drive sets the winding drum in rotation via a two-part drive shaft having a first and second shaft portion , wherein a torsion spring connecting the two shaft portions is provided as the spring accumulator .
Method to determine vehicle parameter values after an activation of a first vehicle related error code in a control system, wherein said control system comprises at least one control device for control of at least one first function at least partly with the use of sensor signals, and wherein said at least one control device is arranged to activate said first vehicle related error code when a first condition for activation of said first vehicle related error code has been met, characterised in that the method comprises, where said first vehicle related error code has been activated: - determining whether said first condition for activation of said first vehicle related error code is still met; and - determining vehicle parameter values for a first set of vehicle parameters when said first condition is no longer met, i.e. when the vehicle related error code is, or is to be, deactivated, wherein said first set of vehicle parameters comprises at least one from among the group: one or several temperatures, engine speed, air flow, fuel flow, gas flow, throttle position, vehicle speed, settings with respect to a transmission, one or several parameters relating to exhaust emissions, battery voltage. - determining whether said first condition for activation of said first vehicle related error code is still met; and - determining vehicle parameter values for a first set of vehicle parameters when said first condition is no longer met, i.e. when the vehicle related error code is, or is to be, deactivated,
Electric drive unit for cords of blinds, comprising: - a DC driven electric motor , - a cord winding/unwinding unit driven by the electric motor , for winding/unwinding one or more cords of a blind , - a control circuitry arranged for controlling the operation of the electric motor by controlling the DC supply of the electric motor , the control circuitry being functionally connected to one or more rotation detection sensors , each rotation detection sensor being arranged for detecting increments of the rotation of the electric motor by cooperating with a rotating element driven by the electric motor , the rotating element having at least two discrete elements , wherein the passage of which is detected as detection pulses by the one or more rotation detection sensor , wherein the control circuitry is arranged for controlling the electric motor dependent on the time development of the detected passages, the electric drive unit being characterized in that the control circuitry is arranged for controlling the electric motor , such that - the electric motor drives the cord winding/unwinding unit to wind up the one or more cords of the blind , and - the electric motor stops the cord winding/unwinding unit winding up the one or more cords of the blind at a defined wound up end position and then drives the cord winding/unwinding unit to turn in the opposite direction in order to relax the one or more cords of the blind . - a DC driven electric motor , - a cord winding/unwinding unit driven by the electric motor , for winding/unwinding one or more cords of a blind , - a control circuitry arranged for controlling the operation of the electric motor by controlling the DC supply of the electric motor , - the electric motor drives the cord winding/unwinding unit to wind up the one or more cords of the blind , and - the electric motor stops the cord winding/unwinding unit winding up the one or more cords of the blind at a defined wound up end position and then drives the cord winding/unwinding unit to turn in the opposite direction in order to relax the one or more cords of the blind .
A urine collection device , comprising: a receptacle defining an interior volume and configured to receive a penis of a user; an air inlet in fluid communication with the interior volume, the air inlet being at least partially defined by the receptacle; and an outlet in fluid communication with the interior volume, the outlet being formed within the receptacle and configured to enable extraction of fluid from the receptacle: wherein the receptacle includes a first layer and a second layer affixed to the first layer, characterised in that the second layer defines one or more channels which direct fluid to the outlet; and wherein the first layer defines one or more apertures through which urine can exit the interior volume; and the second layer is fluid impermeable whereby air from the air inlet and urine from the penis of the user can flow from the receptacle through the aperture(s) and along the channel(s) to the outlet. a receptacle defining an interior volume and configured to receive a penis of a user; an air inlet in fluid communication with the interior volume, the air inlet being at least partially defined by the receptacle; and an outlet in fluid communication with the interior volume, the outlet being formed within the receptacle and configured to enable extraction of fluid from the receptacle: wherein the receptacle includes a first layer and a second layer affixed to the first layer, characterised in that the second layer defines one or more channels which direct fluid to the outlet; and wherein the first layer defines one or more apertures through which urine can exit the interior volume; and the second layer is fluid impermeable whereby air from the air inlet and urine from the penis of the user can flow from the receptacle through the aperture(s) and along the channel(s) to the outlet. wherein the receptacle includes a first layer and a second layer affixed to the first layer, characterised in that the second layer defines one or more channels which direct fluid to the outlet; and wherein the first layer defines one or more apertures through which urine can exit the interior volume; and the second layer is fluid impermeable whereby air from the air inlet and urine from the penis of the user can flow from the receptacle through the aperture(s) and along the channel(s) to the outlet.