mhurhangee/ep-ind-claims huggingface dataset:
A delivery device (200, 250, 370, 400, 450) for delivering a stented prosthetic heart valve including a valve structure carried by a stent frame configured to self-expand from a collapsed condition to a normal, expanded condition, the delivery device comprising: an inner shaft (130, 252, 302, 372) forming a first lumen; a spindle (140, 304, 404) associated with the inner shaft (130, 252, 302, 372), wherein the spindle defines a first hole (320, 406) open to the first lumen and an exterior of the spindle (140, 304, 404); a first cord slidably disposed within the first lumen for selectively cinching a stented prosthetic heart valve; and a lateral control feature (132a, 132b, 132c; 202a, 202b, 202c, 356, 408a, 408b, 462, 464, 466, 510, 512, 514, 530, 532, 534) configured to bias the spindle (140, 304, 404, 504) to a selected lateral location relative to a stented prosthetic heart valve tethered to the spindle (140, 304, 404) in a tethered and expanded state; wherein the lateral control feature (132a, 132b, 132c; 202a, 202b, 202c) includes a steering mechanism for spatially steering the spindle (140, 304, 404) relative to the inner shaft (130, 252, 302, 372). an inner shaft (130, 252, 302, 372) forming a first lumen; a spindle (140, 304, 404) associated with the inner shaft (130, 252, 302, 372), wherein the spindle defines a first hole (320, 406) open to the first lumen and an exterior of the spindle (140, 304, 404); a first cord slidably disposed within the first lumen for selectively cinching a stented prosthetic heart valve; and a lateral control feature (132a, 132b, 132c; 202a, 202b, 202c, 356, 408a, 408b, 462, 464, 466, 510, 512, 514, 530, 532, 534) configured to bias the spindle (140, 304, 404, 504) to a selected lateral location relative to a stented prosthetic heart valve tethered to the spindle (140, 304, 404) in a tethered and expanded state; wherein the lateral control feature (132a, 132b, 132c; 202a, 202b, 202c) includes a steering mechanism for spatially steering the spindle (140, 304, 404) relative to the inner shaft (130, 252, 302, 372).
A work vehicle comprising: a travel body; a work body rotatably supported by the travel body; a cabin supported by the work body; a first camera and a second camera mounted in the travel body; an operation unit that is disposed in an interior space of the cabin, causes the travel body to travel, and receives an operation of an operator for running the work body; a display disposed in the interior space of the cabin; a first controller mounted in the travel body; and a second controller mounted in the work body, wherein the first controller executes a first composition process for composition of a first video imaged by the first camera and a second video imaged by the second camera and generating composite video data indicating a composite video, and a transmission process for transmitting, to the second controller, the composite video data generated in the first composition process, and wherein the second controller executes a reception process for receiving the composite video data from the first controller, and a display process for displaying, on the display, the composite video indicated by the composite video data received in the reception process. a travel body; a work body rotatably supported by the travel body; a cabin supported by the work body; a first camera and a second camera mounted in the travel body; an operation unit that is disposed in an interior space of the cabin, causes the travel body to travel, and receives an operation of an operator for running the work body; a display disposed in the interior space of the cabin; a first controller mounted in the travel body; and a second controller mounted in the work body, wherein the first controller executes a first composition process for composition of a first video imaged by the first camera and a second video imaged by the second camera and generating composite video data indicating a composite video, and a transmission process for transmitting, to the second controller, the composite video data generated in the first composition process, and wherein the second controller executes a reception process for receiving the composite video data from the first controller, and a display process for displaying, on the display, the composite video indicated by the composite video data received in the reception process.
A building management system for controlling an environment of a building with one or more tintable windows located between an interior and an exterior of the building, the building management system being characterized by comprising: at least one controller having control logic configured to determine a tint level for the one or more tintable windows at a future time based on a calculated penetration depth of direct sunlight through at least one of the tintable windows at the future time, optionally a calculated irradiance at the future time, and further optionally a detected irradiance.
A turbine engine system, comprising: a first lubricant circuit comprising a first turbine engine component fluidly coupled with a first lubricant heat exchanger (90, 92), wherein the first turbine engine component comprises a gear train; a second lubricant circuit comprising a second turbine engine component fluidly coupled with a second lubricant heat exchanger (126, 128), and the second turbine engine component comprises a bearing; a plurality of engine stages, wherein the gear train connects a first of the plurality of engine stages to a second of the plurality of engine stages; and a shaft supported by the bearing, and connected to one of the plurality of engine stages; characterised in that: the second lubricant circuit is fluidly separate from the first lubricant circuit. a first lubricant circuit comprising a first turbine engine component fluidly coupled with a first lubricant heat exchanger (90, 92), wherein the first turbine engine component comprises a gear train; a second lubricant circuit comprising a second turbine engine component fluidly coupled with a second lubricant heat exchanger (126, 128), and the second turbine engine component comprises a bearing; a plurality of engine stages, wherein the gear train connects a first of the plurality of engine stages to a second of the plurality of engine stages; and a shaft supported by the bearing, and connected to one of the plurality of engine stages; characterised in that: the second lubricant circuit is fluidly separate from the first lubricant circuit.
A control system configured to control a driveline of a motor vehicle to operate in a selected one of a plurality of configurations, the system comprising: at least one sensor (81, 87F) for sensing an environment ahead of the vehicle and generating a sensor signal in dependence on the environment ahead, a controller configured to cause the driveline to operate in a first configuration in which the driveline is configured such that a first group of one or more wheels (12, 13, 14, 15) and in addition a second group of one or more wheels (12, 13, 14, 15) are arranged to be driven or a second configuration in which the first group of one or more wheels (12, 13, 14, 15) and not the second group are arranged to be driven wherein the driveline is caused to operate in the first configuration or second configuration in dependence, at least in part, on the sensor signal, wherein the first or second group of one or more wheels (12, 13, 14, 15) comprises a plurality of wheels (12, 13, 14, 15), the controller being configured to calculate a predetermined amount of locking torque between at least a pair of wheels (12, 13, 14, 15) of the plurality of wheels (12, 13, 14, 15) of the first or second group in dependence at least in part on the sensor signal and to cause the driveline to establish the predetermined amount of locking torque between the at least a pair of wheels (12, 13, 14, 15) of the plurality of wheels (12, 13, 14, 15) of the first or second group. at least one sensor (81, 87F) for sensing an environment ahead of the vehicle and generating a sensor signal in dependence on the environment ahead, a controller configured to cause the driveline to operate in a first configuration in which the driveline is configured such that a first group of one or more wheels (12, 13, 14, 15) and in addition a second group of one or more wheels (12, 13, 14, 15) are arranged to be driven or a second configuration in which the first group of one or more wheels (12, 13, 14, 15) and not the second group are arranged to be driven wherein the driveline is caused to operate in the first configuration or second configuration in dependence, at least in part, on the sensor signal, wherein the first or second group of one or more wheels (12, 13, 14, 15) comprises a plurality of wheels (12, 13, 14, 15), the controller being configured to calculate a predetermined amount of locking torque between at least a pair of wheels (12, 13, 14, 15) of the plurality of wheels (12, 13, 14, 15) of the first or second group in dependence at least in part on the sensor signal and to cause the driveline to establish the predetermined amount of locking torque between the at least a pair of wheels (12, 13, 14, 15) of the plurality of wheels (12, 13, 14, 15) of the first or second group.
An image processing device comprising: an encoding mode setting unit configured to set an encoding mode of encoding of an image by setting a transform type with a minimum encoding cost in a non-joint chrominance encoding mode as a transform type in a joint chrominance encoding mode, and deriving an encoding cost in the joint chrominance encoding mode; wherein the encoding mode setting unit compares a minimum encoding cost of the non-joint chrominance encoding mode with the encoding cost of the joint chrominance encoding mode, and selects the encoding mode with the minimum encoding cost. an encoding mode setting unit configured to set an encoding mode of encoding of an image by setting a transform type with a minimum encoding cost in a non-joint chrominance encoding mode as a transform type in a joint chrominance encoding mode, and deriving an encoding cost in the joint chrominance encoding mode; wherein the encoding mode setting unit compares a minimum encoding cost of the non-joint chrominance encoding mode with the encoding cost of the joint chrominance encoding mode, and selects the encoding mode with the minimum encoding cost.
An oral care composition comprising a polymer formed from the condensation of a polyol, wherein the polyol is at least a dihydric polyol defined by formula HO-L-OH wherein L is C 3 -C 12 cycloaliphatic, sugar alcohols, a monosaccharide, oligosaccharide or a polyether; and a polycarboxylic acid, anhydride, ester or acid halide thereof, wherein the polycarboxylic acids, anhydrides, acid halides or esters thereof are defined by formula A is a linear or branched unsubstituted C 1 -C 20 alkylene or a linear or branched C 1 -C 20 alkylene substituted by C OR 1, C O - or OH, or A is a linear or branched unsubstituted C 1 -C 20 alkylene interrupted by-O- or NR 2 - or a linear or branched C 1 -C 20 alkylene interrupted by -O- or NR 2 substituted by C OR 1, C O - or OH; wherein R 1 is hydrogen, unsubstituted linear or branched C 1 -C 20 alkylene, linear or branched C 1 -C 20 alkylene substituted by C OH, C O - or OH and R 2 is hydrogen or linear or branched C 1 -C 20 alkylene substituted by C OH or OH; m and p are 1 or 2; and R 3 and R 4 are independently OH, halogen, OR 5, -OC which -OC may be bound to A to form an anhydride or R 3 is oxygen and R 4 is a bond to the oxygen of R 3, and R 5 is a C 1 -C 4 alkyl or a substituted or unsubstituted phenyl; and arginine; wherein the formed polymer is distributed in an orally acceptable carrier. A is a linear or branched unsubstituted C 1 -C 20 alkylene or a linear or branched C 1 -C 20 alkylene substituted by C OR 1, C O - or OH, or A is a linear or branched unsubstituted C 1 -C 20 alkylene interrupted by-O- or NR 2 - or a linear or branched C 1 -C 20 alkylene interrupted by -O- or NR 2 substituted by C OR 1, C O - or OH; wherein R 1 is hydrogen, unsubstituted linear or branched C 1 -C 20 alkylene, linear or branched C 1 -C 20 alkylene substituted by C OH, C O - or OH and R 2 is hydrogen or linear or branched C 1 -C 20 alkylene substituted by C OH or OH; m and p are 1 or 2; and R 3 and R 4 are independently OH, halogen, OR 5, -OC which -OC may be bound to A to form an anhydride or R 3 is oxygen and R 4 is a bond to the oxygen of R 3, and R 5 is a C 1 -C 4 alkyl or a substituted or unsubstituted phenyl; and arginine;
Method of calculating a timeout parameter in a near-field communication session before establishing a logical link control protocol, hereafter called LLCP, connection, comprising the steps of: - initiating a session; - calculating a throughput of the connection during initialization of the session by measuring a time span between sending a first data packet comprising a first number of bits from a target communication device to an initiator communication device and receiving a second data packet comprising a second number of bits from the initiator communication device on the target communication device, said time span including a fixed computational time delay of the initiator communication device and dividing the sum of said first number and second number by the measured time span, wherein said first and second data packets are smaller than a maximum packet size; - calculating a maximum round trip time based on the difference between the maximum LLCP packet that is possible to be sent and received divided by the calculated throughput at the initialization stage; - setting a session timeout parameter for said near field communication session equal to the calculated maximum round trip time. - initiating a session; - calculating a throughput of the connection during initialization of the session by measuring a time span between sending a first data packet comprising a first number of bits from a target communication device to an initiator communication device and receiving a second data packet comprising a second number of bits from the initiator communication device on the target communication device, said time span including a fixed computational time delay of the initiator communication device and dividing the sum of said first number and second number by the measured time span, wherein said first and second data packets are smaller than a maximum packet size; - calculating a maximum round trip time based on the difference between the maximum LLCP packet that is possible to be sent and received divided by the calculated throughput at the initialization stage; - setting a session timeout parameter for said near field communication session equal to the calculated maximum round trip time.
A gas-detection image-processing device comprising: an image data input unit that is configured to receive input of image data representing a plurality of the infrared images yielded by an image of a target to be monitored being taken at a plurality of time points; a determination unit (8, 9) that is configured to generate chronological pixel data in which pieces of pixel data for the pixels located at a same position in the plurality of infrared images input from the image data input unit are lined-up in chronological order, and on the basis of the chronological pixel data for each of the plurality of pixels constituting the infrared image, to determine for each of the plurality of pixels: a with-gas background temperature indicating a background temperature when gas is present; and a without-gas background temperature indicating a background temperature when gas is not present; a calculation unit that is configured to calculate gas concentration lengths or correlation values correlated with the gas concentration lengths respectively corresponding to a plurality of pixels by using the with-gas background temperatures and the without-gas background temperatures that are determined by the determination unit; and an identification unit that, on the basis of the gas concentration lengths or the correlation values, is configured to identify, in a monitoring image that is generated by using the infrared image, a pixel showing the gas in the image and a pixel not showing the gas in the image. an image data input unit that is configured to receive input of image data representing a plurality of the infrared images yielded by an image of a target to be monitored being taken at a plurality of time points; a determination unit (8, 9) that is configured to generate chronological pixel data in which pieces of pixel data for the pixels located at a same position in the plurality of infrared images input from the image data input unit are lined-up in chronological order, and on the basis of the chronological pixel data for each of the plurality of pixels constituting the infrared image, to determine for each of the plurality of pixels: a with-gas background temperature indicating a background temperature when gas is present; and a without-gas background temperature indicating a background temperature when gas is not present; a calculation unit that is configured to calculate gas concentration lengths or correlation values correlated with the gas concentration lengths respectively corresponding to a plurality of pixels by using the with-gas background temperatures and the without-gas background temperatures that are determined by the determination unit; and an identification unit that, on the basis of the gas concentration lengths or the correlation values, is configured to identify, in a monitoring image that is generated by using the infrared image, a pixel showing the gas in the image and a pixel not showing the gas in the image.
A polycarbonate resin comprising a structural unit represented by general formula: wherein X represents a C 1-4 alkylene group; and a and b each independently represent an integer of 1 to 10.
An industrial printhead (100, 200) comprising a flow channel (102, 202) enclosed in a chamber and a single vibration distributor, the vibration distributor comprising a mass resonator, a piezoelectric exciter and a wave concentrator arranged in an axial configuration, wherein the flow channel is resonated, in use, by the vibration distributor; characterized in that the flow channel has at least one fluid inlet (102a, 202a) and two or more fluid outlets (102b, 202b), and wherein the wave concentrator is conical in shape.
Rapid prototyping device for the layered additive manufacturing of three-dimensional objects, with at least one manufacturing base and at least one manufacturing head (3, 4, 4 ') for the arrangement of granular, powder or liquid manufacturing material on the manufacturing base or the material located on the manufacturing base, which is developed to dispense manufacturing materials in a location-selective manner at the manufacturing site in grid positions according to predetermined manufacturing grids for each layer, whereby the manufacturing head (3, 4, 4') comprises at least one fuser unit (24, 24-1, 24-2) for the fusing of manufacturing material, whereby the manufacturing base and the manufacturing head (3, 4, 4') are located such that they can be slid against each other both in accordance with a direction of travel in the plane of a layer as well as in a feed direction relative to the thickness of the layers, characterised in that the fuser unit (24, 24-1, 24-2) is developed to fuse to the respective grid positions and in a location-selective manner the manufacturing materials which is located there, namely to impart energy at the concrete working position corresponding to the grid position in the manufacturing grid in order to heat and melt the manufacturing material, whereby the fixing unit (24, 24-1, 24-2) comprises a laser and an optical deflection device assigned to the laser, in particular a rotatably mounted deflecting mirror, wherein the laser can be controlled and activated by a control unit according to the respective manufacturing grid.
A mechanical seal, the mechanical seal having a rotary part and a non-rotary part, the rotary part being formed at least of a rotary slide ring (24, 24') having a second axial end with an area and a rotary slide surface and of a rotary slide ring carrier, and the non-rotary part being formed at least of a non-rotary slide ring (36, 36') having a second axial end with an area and a non-rotary slide surface and of a non-rotary slide ring carrier, the mechanical seal further having an element (54, 58, 68, 72, 78, 84) changing the area of the second axial end of one of the rotary slide ring and the non-rotary slide ring (36', 76, 82, 90), and a sensor (62, 86) configured to collect information from the wear of the slide ring/s, in communication with the mechanical seal, characterized in that the element (54, 58, 68, 72) being at least one circumferential groove (54, 58, 68, 72) which is positioned at a distance (d, d') from the slide surface at the second axial end (52, 66) of the one of the rotary slide ring and the non-rotary slide ring (36', 76, 82, 90), such that the diminishing area of the second axial end or slide surface makes the frequency data, to be recorded by the sensor, from between the opposing slide surfaces change, and that the circumferential groove (54, 58, 68, 72) having a side surface, and an angle β between the groove side surface and the circumferential surface (56, 60; 70, 74) of the slide ring (24; 36') being blunt
A method, comprising: receiving, by a gateway device and from an access control device, credential data received by the access control device from a mobile device in response to presentation of the mobile device to the access control device; comparing, by the gateway device, the credential data to a gateway credential list stored in a memory of the gateway device, wherein the gateway credential list identifies a plurality of credentials associated with the gateway device, and wherein each credential of the plurality of credentials is associated with a unique credential index; transmitting, by the gateway device and to a server, the unique credential index associated with the credential data in response to determining that the credential data matches a corresponding credential in the gateway credential list; and receiving, by the gateway device and from the server, an access control decision associated with the credential data in response to transmitting the unique credential index. receiving, by a gateway device and from an access control device, credential data received by the access control device from a mobile device in response to presentation of the mobile device to the access control device; comparing, by the gateway device, the credential data to a gateway credential list stored in a memory of the gateway device, wherein the gateway credential list identifies a plurality of credentials associated with the gateway device, and wherein each credential of the plurality of credentials is associated with a unique credential index; transmitting, by the gateway device and to a server, the unique credential index associated with the credential data in response to determining that the credential data matches a corresponding credential in the gateway credential list; and receiving, by the gateway device and from the server, an access control decision associated with the credential data in response to transmitting the unique credential index.
Holder of a coupling, comprising a keyhole and an abutting portion in which an edge of the keyhole encloses a non-planar surface, wherein the holder is fastenable by means of a fastening structure to a component and the abutting portion is formed with at least two stages in the direction of a longitudinal axis of a coupling bolt, which is arrangeable in a locking manner in the keyhole, so that the abutting portion is mechanically braceable between a holding head and a supporting section of the coupling bolt.