mhurhangee/patent-ind-claim-en huggingface dataset:
A low drag outdoor media façade display for mounting on a structure susceptible to instability and tumbledown of said structure when subjected to strong winds and gusts blowing on said façade surface area, said façade display comprising an array of radiating elements and an array of suspension elements , wherein said array of radiating elements is dispersed about said façade display , said radiating elements are held by said suspension elements , said radiating elements and said suspension elements are spaced apart leaving gaps, such that said total surface area of said radiating elements , and said suspension elements is smaller than the total area of said façade display , minimizing the drag of said façade display ; and characterized in that each of said array of radiating elements is aerodynamically shaped, configured to rest in a particular positioning in still air and to freely rotate about an axis running therethrough to assume a position with minimal drag by virtue of having an inherently low drag coefficient due to its shape, when subjected to an incident wind blowing on said façade surface area, so as to increase free air passage through the façade display and thereby reduce the drag coefficient of the façade display . wherein said array of radiating elements is dispersed about said façade display , said radiating elements are held by said suspension elements , said radiating elements and said suspension elements are spaced apart leaving gaps, such that said total surface area of said radiating elements , and said suspension elements is smaller than the total area of said façade display , minimizing the drag of said façade display ; and characterized in that each of said array of radiating elements is aerodynamically shaped, configured to rest in a particular positioning in still air and to freely rotate about an axis running therethrough to assume a position with minimal drag by virtue of having an inherently low drag coefficient due to its shape, when subjected to an incident wind blowing on said façade surface area, so as to increase free air passage through the façade display and thereby reduce the drag coefficient of the façade display .
A circuit for inclusion in vehicle radio equipment , the circuit including: - a video signal receiver circuit block configured for receiving video signals conveying video frames from a vehicle front view camera , - a video signal transmitter circuit block configured for transmitting video frames received at the radio equipment from the front view camera to a mobile communication device (S) equipped with video signal handling circuitry (S2) thereby making video frames from the front view camera available for handling by the video signal handling circuitry (S2) of the mobile communication device (S), the circuit configured for sensing at least one operational status of the vehicle (V) and actuating the video signal handling circuitry (S2) of the mobile communication device (S) as a result of said at least one operational status of the vehicle (V) sensed at the radio equipment . - a video signal receiver circuit block configured for receiving video signals conveying video frames from a vehicle front view camera , - a video signal transmitter circuit block configured for transmitting video frames received at the radio equipment from the front view camera to a mobile communication device (S) equipped with video signal handling circuitry (S2) thereby making video frames from the front view camera available for handling by the video signal handling circuitry (S2) of the mobile communication device (S),
A method of receiving a group wake-up signal, WUS, by a device in a wireless communication system, the method comprising: obtaining, by the device , configuration information regarding WUS resources for the group WUS; receiving (S1904), by the device , the group WUS based on the configuration information regarding the WUS resources; and monitoring (S1906), by the device, a paging signal based on the received group WUS, the WUS resources for the group WUS include at least one of a first WUS resource that is shared with a non-group WUS and a second WUS resource that is not shared with the non-group WUS, the second WUS resource is configured immediately prior to the first WUS resource in time, characterized in that a WUS sequence of the group WUS is obtained based on a scrambling sequence, the scrambling sequence being initialized with a value satisfying a formula: c g ⋅ 2 29 + N ID Ncell + 1 10 n ƒ _ start _ PO + ⌊ n s _ start _ PO 2 ⌋ mod 2048 + 1 2 9 + N ID Ncell where i) c g denotes a WUS resource identifier, ID, ii) N ID Ncell denotes a cell ID, iii) n f_start_PO denotes an initial frame of an initial paging occasion for the group WUS, iv) n s_start_PO denotes an initial slot of the initial paging occasion, v) 11 denotes a floor operation, and vi) mod denotes a modulo operation, the WUS resource ID is 0 for the first WUS resource, and the WUS resource ID is 1 for the second WUS resource. obtaining, by the device , configuration information regarding WUS resources for the group WUS; receiving (S1904), by the device , the group WUS based on the configuration information regarding the WUS resources; and monitoring (S1906), by the device, a paging signal based on the received group WUS, the WUS resources for the group WUS include at least one of a first WUS resource that is shared with a non-group WUS and a second WUS resource that is not shared with the non-group WUS, the second WUS resource is configured immediately prior to the first WUS resource in time, characterized in that a WUS sequence of the group WUS is obtained based on a scrambling sequence, the scrambling sequence being initialized with a value satisfying a formula: c g ⋅ 2 29 + N ID Ncell + 1 10 n ƒ _ start _ PO + ⌊ n s _ start _ PO 2 ⌋ mod 2048 + 1 2 9 + N ID Ncell where i) c g denotes a WUS resource identifier, ID, ii) N ID Ncell denotes a cell ID, iii) n f_start_PO denotes an initial frame of an initial paging occasion for the group WUS, iv) n s_start_PO denotes an initial slot of the initial paging occasion, v) 11 denotes a floor operation, and vi) mod denotes a modulo operation, the WUS resource ID is 0 for the first WUS resource, and the WUS resource ID is 1 for the second WUS resource.
A communication method performed by a terminal device, comprising: determining (S502) at least one target time parameter set based on N time parameter sets, wherein N is a positive integer greater than or equal to 2, time unit lengths corresponding to at least two of the N time parameter sets are different, each time parameter set comprises at least one time parameter, and the at least one time parameter is used to indicate a quantity of time units between receiving first downlink information and feeding back first response information corresponding to the first downlink information; and sending (S503) a codebook at a first time to a network device, wherein the codebook comprises response information corresponding to downlink information received at at least one of M target times, the M target times are determined based on the first time and the at least one target time parameter set, and M is a positive integer; characterized in that the determining (S502) is enabled by first: receiving configuration information from the network device, wherein the configuration information is used to indicate N1 time parameter sets; determining the N1 time parameter sets based on the configuration information; determining N2 time parameter sets based on a predefined specification; and obtaining (S501) the N time parameter sets based on the N1 time parameter sets and the N2 time parameter sets, wherein the N time parameter sets comprise the N1 time parameter sets and the N2 time parameter sets, a sum of N1 and N2 is N, and N1 and N2 are both positive integers. determining (S502) at least one target time parameter set based on N time parameter sets, wherein N is a positive integer greater than or equal to 2, time unit lengths corresponding to at least two of the N time parameter sets are different, each time parameter set comprises at least one time parameter, and the at least one time parameter is used to indicate a quantity of time units between receiving first downlink information and feeding back first response information corresponding to the first downlink information; and sending (S503) a codebook at a first time to a network device, wherein the codebook comprises response information corresponding to downlink information received at at least one of M target times, the M target times are determined based on the first time and the at least one target time parameter set, and M is a positive integer; characterized in that the determining (S502) is enabled by first: receiving configuration information from the network device, wherein the configuration information is used to indicate N1 time parameter sets; determining the N1 time parameter sets based on the configuration information; determining N2 time parameter sets based on a predefined specification; and obtaining (S501) the N time parameter sets based on the N1 time parameter sets and the N2 time parameter sets, wherein the N time parameter sets comprise the N1 time parameter sets and the N2 time parameter sets, a sum of N1 and N2 is N, and N1 and N2 are both positive integers.
A scavenger composition for reducing hydrogen sulfide emissions from asphalt comprising: a carrier in an amount of 1.0 wt% to 99.0 wt%, based on total weight of the composition, an active metal in an amount of 99.0 wt% to 1.0 wt%, based on total weight of the composition, a dispersant in an amount of 0.01 wt% to 10.0 wt.%, based on total weight of the composition, and a suspension aid in an amount of 0.01 wt% to 10.0 wt.%, based on total weight of the composition, wherein the active metal is a metal salt or metal chelate, and wherein the metal is chosen from iron, copper, molybdenum, nickel, and zinc. a carrier in an amount of 1.0 wt% to 99.0 wt%, based on total weight of the composition, an active metal in an amount of 99.0 wt% to 1.0 wt%, based on total weight of the composition, a dispersant in an amount of 0.01 wt% to 10.0 wt.%, based on total weight of the composition, and a suspension aid in an amount of 0.01 wt% to 10.0 wt.%, based on total weight of the composition, wherein the active metal is a metal salt or metal chelate, and wherein the metal is chosen from iron, copper, molybdenum, nickel, and zinc.
A High Temperature Superconductor, HTS, magnet comprising: a coil formed of nested concentric windings wound around an axis of the coil, each winding comprising HTS material; and first and second conductor elements each comprising respective electrical contact surfaces through which to supply electric current to, or receive electric current from, a portion of a respective at least one of the windings, each electrical contact surface providing electrical contact between the conductor element and an axial edge of the coil at least partially around the path of the respective at least one of the windings, and characterised by the electrical contact surface of the first conductor element being located closer to the axis than the electrical contact surface of the second conductor element, whereby electrical current supplied to the coil through the first conductor element circulates around successive windings of the coil before being received by the second conductor element . a coil formed of nested concentric windings wound around an axis of the coil, each winding comprising HTS material; and first and second conductor elements each comprising respective electrical contact surfaces through which to supply electric current to, or receive electric current from, a portion of a respective at least one of the windings, each electrical contact surface providing electrical contact between the conductor element and an axial edge of the coil at least partially around the path of the respective at least one of the windings, and characterised by the electrical contact surface of the first conductor element being located closer to the axis than the electrical contact surface of the second conductor element, whereby electrical current supplied to the coil through the first conductor element circulates around successive windings of the coil before being received by the second conductor element .
A method of retrofitting replacement side gears to a vehicle differential assembly, the vehicle differential assembly comprising: a casing ; a rotatable carrier provided within the casing ; and a pair of side gears that are received in the carrier and meshingly engage one or more pinion gears rotatably coupled to the carrier , the method comprising: at least partially disassembling the differential assembly and removing the existing side gears ; and retrofitting the vehicle differential assembly with a pair of replacement side gears that are integrally formed with respective stub shafts that extend beyond both the carrier and casing , the stub shafts comprising radially external splines that are configured to engage respective drive shaft assemblies . a casing ; a rotatable carrier provided within the casing ; and a pair of side gears that are received in the carrier and meshingly engage one or more pinion gears rotatably coupled to the carrier , the method comprising: at least partially disassembling the differential assembly and removing the existing side gears ; and retrofitting the vehicle differential assembly with a pair of replacement side gears that are integrally formed with respective stub shafts that extend beyond both the carrier and casing , the stub shafts comprising radially external splines that are configured to engage respective drive shaft assemblies . at least partially disassembling the differential assembly and removing the existing side gears ; and retrofitting the vehicle differential assembly with a pair of replacement side gears that are integrally formed with respective stub shafts that extend beyond both the carrier and casing , the stub shafts comprising radially external splines that are configured to engage respective drive shaft assemblies .
A method of calibrating a driver assistance system of a vehicle , the method comprising: entering a calibration mode for the driver assistance system ; determining with a controller for the driver assistance system a first estimated position and heading of the vehicle at a first location; capturing a first image from at least one camera outwardly facing from the vehicle and selecting at least one feature in the first image; moving the vehicle to at least a second location and heading and determining a second estimated position and heading of the vehicle ; capturing a second image from at least one camera outwardly facing from the vehicle and selecting at least one feature in the second image, wherein the at least one selected feature in the second image is the same feature as the at least one selected feature in the first image; and calculating with the controller new vehicle motion parameter values based on the first estimated position and heading, second estimated position and heading, first recorded at least one feature data, and second recorded at least one feature data, wherein the vehicle motion parameter values include at least one of: wheelbase, track width, tire diameter, steering offset and steering ratio, and wherein moving the vehicle includes: steering, braking, and accelerating. entering a calibration mode for the driver assistance system ; determining with a controller for the driver assistance system a first estimated position and heading of the vehicle at a first location; capturing a first image from at least one camera outwardly facing from the vehicle and selecting at least one feature in the first image; moving the vehicle to at least a second location and heading and determining a second estimated position and heading of the vehicle ; capturing a second image from at least one camera outwardly facing from the vehicle and selecting at least one feature in the second image, wherein the at least one selected feature in the second image is the same feature as the at least one selected feature in the first image; and calculating with the controller new vehicle motion parameter values based on the first estimated position and heading, second estimated position and heading, first recorded at least one feature data, and second recorded at least one feature data, wherein the vehicle motion parameter values include at least one of: wheelbase, track width, tire diameter, steering offset and steering ratio,
A thienopyridone derivative of Formula (I): or a pharmaceutically acceptable salt and/or solvate thereof, or a pharmaceutical composition comprising the same, for use in the treatment of diabetic nephropathy. or a pharmaceutically acceptable salt and/or solvate thereof, or a pharmaceutical composition comprising the same, for use in the treatment of diabetic nephropathy.
A solid-state imaging device comprising: a plurality of lenses (111a-d) configured to condense light; a filter unit (112, 112a-d) having a plurality of filter unit regions respectively irradiated by light passing through the plurality of lenses, each filter unit region including a corresponding transmission pattern (112a-d) wherein the transmission patterns are configured to transmit respectively different wavelength bands of the light; and an image sensor divided in a plurality of image sensor regions (121a-d), whereby in each image sensor region pixels configured to convert light transmitted through the respective filter unit region into electric signals are arranged in a matrix, each image sensor region being provided with color filters on a filter-unit side of the pixels, the color filters in a respective image sensor region being configured to pass a respective wavelength band passed by the corresponding transmission pattern, characterized in that each one of the transmission patterns includes two bandpass filters having non-adjacent wavelength pass bands. a plurality of lenses (111a-d) configured to condense light; a filter unit (112, 112a-d) having a plurality of filter unit regions respectively irradiated by light passing through the plurality of lenses, each filter unit region including a corresponding transmission pattern (112a-d) wherein the transmission patterns are configured to transmit respectively different wavelength bands of the light; and an image sensor divided in a plurality of image sensor regions (121a-d), whereby in each image sensor region pixels configured to convert light transmitted through the respective filter unit region into electric signals are arranged in a matrix, each image sensor region being provided with color filters on a filter-unit side of the pixels, the color filters in a respective image sensor region being configured to pass a respective wavelength band passed by the corresponding transmission pattern, characterized in that each one of the transmission patterns includes two bandpass filters having non-adjacent wavelength pass bands.
Use, as a nitrogen oxide purification catalyst, of a catalyst comprising alloy particles having an average particle size of 0.2 to 100 nm and consisting of gold atoms and iron atoms in a state of close proximity, wherein said particles are supported on a metal oxide carrier selected from Al 2 O 3 , SiO 2 , CeO 2 , and CeO 2 -ZrO 2 .
A left ventricular cardiac assist pump, comprising an inlet opening and a discharge opening aligned along an axial direction, the pump comprising: - a rotor comprising an impeller and a shaft provided with electric motor magnets , and - a stator arranged around the shaft , provided with electric motor stator windings ; and - a casing offset from the stator and spaced from said impeller and said stator , the rotor and the stator forming a rotor-stator assembly surrounded by the casing , with at least one connecting spacer connecting and offsetting the casing and the stator , said casing defining the inlet opening and the discharge opening of the pump, characterized in that the impeller is on the side of the inlet opening and is configured to circulate blood towards the casing and towards the discharge opening , whereby the blood flows into the pump substantially between the casing and the rotor-stator assembly . - a rotor comprising an impeller and a shaft provided with electric motor magnets , and - a stator arranged around the shaft , provided with electric motor stator windings ; and - a casing offset from the stator and spaced from said impeller and said stator , the rotor and the stator forming a rotor-stator assembly surrounded by the casing , with at least one connecting spacer connecting and offsetting the casing and the stator , said casing defining the inlet opening and the discharge opening of the pump,
A method for manufacturing a plugged honeycomb structure , comprising: a forming raw material preparation step of mixing and kneading a partition wall base material raw material at least including cordierite powder and binder with water to obtain a partition wall base material forming raw material; a forming/drying step of forming the obtained partition wall base material forming raw material to obtain a honeycomb formed body including a not-fired partition wall base material that defines a plurality of cells serving as a through channel of fluid, and drying the obtained honeycomb formed body to obtain a honeycomb dried body; a slurry application step of applying trapping layer forming slurry at least including a trapping layer forming raw material and water to a surface of the not-fired partition wall base material that defines predetermined cells of the honeycomb dried body, and drying the honeycomb dried body to which the trapping layer forming slurry has been applied; a firing step of firing the honeycomb dried body to which the trapping layer forming slurry has been applied to obtain a honeycomb fired body; and a plugging step of disposing a plugging portion at open ends of predetermined cells of the honeycomb dried body to which the trapping layer forming slurry has been applied or of the honeycomb fired body, wherein the trapping layer forming raw material includes a cordierite forming raw material or alumina. a forming raw material preparation step of mixing and kneading a partition wall base material raw material at least including cordierite powder and binder with water to obtain a partition wall base material forming raw material; a forming/drying step of forming the obtained partition wall base material forming raw material to obtain a honeycomb formed body including a not-fired partition wall base material that defines a plurality of cells serving as a through channel of fluid, and drying the obtained honeycomb formed body to obtain a honeycomb dried body; a slurry application step of applying trapping layer forming slurry at least including a trapping layer forming raw material and water to a surface of the not-fired partition wall base material that defines predetermined cells of the honeycomb dried body, and drying the honeycomb dried body to which the trapping layer forming slurry has been applied; a firing step of firing the honeycomb dried body to which the trapping layer forming slurry has been applied to obtain a honeycomb fired body; and a plugging step of disposing a plugging portion at open ends of predetermined cells of the honeycomb dried body to which the trapping layer forming slurry has been applied or of the honeycomb fired body, wherein the trapping layer forming raw material includes a cordierite forming raw material or alumina.