mhurhangee/patent-ind-claim-en huggingface dataset:
A shock absorbing pad, comprising: a composite nonwoven pad having a face surface and an opposed back surface and comprising a nonwoven blend of reclaimed artificial turf material, a heat set binder material and an artificial turf infill material embedded within the composite nonwoven pad, wherein the reclaimed artificial turf material comprises face fibers, primary backing fibers, and adhesive backing, and wherein the heat set binder material comprises a low-melt fiber having a melting point between 100 °C and 180 °C. a composite nonwoven pad having a face surface and an opposed back surface and comprising a nonwoven blend of reclaimed artificial turf material, a heat set binder material and an artificial turf infill material embedded within the composite nonwoven pad, wherein the reclaimed artificial turf material comprises face fibers, primary backing fibers, and adhesive backing, and wherein the heat set binder material comprises a low-melt fiber having a melting point between 100 °C and 180 °C.
A method of wireless communication, comprising: determining , by a base station , to access a shared communication spectrum, wherein the base station has a wideband capability; transmitting , by the base station, a listen before talk, LBT, structure signal, wherein the LBT structure signal identifies a current LBT structure of the base station; and attempting, by the base station, to access the shared communication spectrum according to the current LBT structure; detecting, by the base station, a neighboring LBT structure signal from one or more neighboring base stations; reading, by the base station, LBT structure information associated with the one or more neighboring base stations for the shared communication spectrum; and adjusting, by the base station, the current LBT structure to accommodate the LBT structure information of the one or more neighboring base stations. determining , by a base station , to access a shared communication spectrum, wherein the base station has a wideband capability; transmitting , by the base station, a listen before talk, LBT, structure signal, wherein the LBT structure signal identifies a current LBT structure of the base station; and attempting, by the base station, to access the shared communication spectrum according to the current LBT structure; detecting, by the base station, a neighboring LBT structure signal from one or more neighboring base stations; reading, by the base station, LBT structure information associated with the one or more neighboring base stations for the shared communication spectrum; and adjusting, by the base station, the current LBT structure to accommodate the LBT structure information of the one or more neighboring base stations.
A method , comprising: identifying a set of targets within a field of view of a millimeter-wave radar sensor based on radar data received by the millimeter-wave radar sensor; capturing radar data corresponding to the set of targets across a macro-Doppler frame; performing macro-Doppler processing on the macro-Doppler frame and determining whether a macro-Doppler signal is present in the macro-Doppler frame based on the macro-Doppler processing; capturing radar data corresponding to the set of targets across a micro-Doppler frame, wherein the micro-Doppler frame has a duration superior or equal to a duration of a first plurality of macro-Doppler frames; performing micro-Doppler processing on the micro-Doppler frame and determining whether a micro-Doppler signal is present in the micro-Doppler frame based on the micro-Doppler processing; activating range bins of a plurality of range bins in response to a determination that at least one of the macro-Doppler signal or the micro-Doppler signal is present; wherein performing micro-Doppler processing on the micro-Doppler frame and determining whether the micro-Doppler signal is present occurs in parallel to performing macro-Doppler processing on the macro-Doppler frame and determining whether the macro-Doppler signal is present; clustering adjacent activated range bins into a single activated range cluster; and determining a number of people in the field of view of the millimeter-wave radar sensor based on a number of single activated range clusters present in the plurality of range bins. identifying a set of targets within a field of view of a millimeter-wave radar sensor based on radar data received by the millimeter-wave radar sensor; capturing radar data corresponding to the set of targets across a macro-Doppler frame; performing macro-Doppler processing on the macro-Doppler frame and determining whether a macro-Doppler signal is present in the macro-Doppler frame based on the macro-Doppler processing; capturing radar data corresponding to the set of targets across a micro-Doppler frame, wherein the micro-Doppler frame has a duration superior or equal to a duration of a first plurality of macro-Doppler frames; performing micro-Doppler processing on the micro-Doppler frame and determining whether a micro-Doppler signal is present in the micro-Doppler frame based on the micro-Doppler processing; activating range bins of a plurality of range bins in response to a determination that at least one of the macro-Doppler signal or the micro-Doppler signal is present; wherein performing micro-Doppler processing on the micro-Doppler frame and determining whether the micro-Doppler signal is present occurs in parallel to performing macro-Doppler processing on the macro-Doppler frame and determining whether the macro-Doppler signal is present; clustering adjacent activated range bins into a single activated range cluster; and determining a number of people in the field of view of the millimeter-wave radar sensor based on a number of single activated range clusters present in the plurality of range bins.
A method for making composite excipient particles for use in a pharmaceutical composition, the method comprising a milling step in which particles of an excipient material are milled in the presence of particulate additive material, wherein the additive material comprises magnesium stearate and wherein the additive material is in the form of a continuous coating on the surfaces of the particles of excipient material.
Manhole cover comprising: - a support frame suitable to delimit an access point to a well; - a lid housed in a seat defined by said support frame to define a closing condition of said manhole cover ; - pivotal coupling means suitable to rotatably couple said lid to said support frame defining a plurality of operating conditions between said closing condition, wherein said lid is housed in said seat , and an at least partial opening condition, wherein said lid is at least partially arranged outside said seat ; said pivotal coupling means comprising a rotation shaft defining a rotation axis (X) for said lid ; and - a containment seat , having a walkable protection element , connected to a perimeter portion of said support frame , said containment seat being suitable to house at least partially said rotation shaft of said pivotal coupling means , Characterized in that it further comprises a containment body defining said containment seat , said containment body comprising: - a first wall and a second wall , arranged opposite to each other and connected to said protection element , respectively defining an open support portion suitable to support from below said rotation shaft , wherein said first and second wall respectively have a guiding portion suitable to facilitate the insertion of said rotation shaft in said support portions . - a support frame suitable to delimit an access point to a well; - a lid housed in a seat defined by said support frame to define a closing condition of said manhole cover ; - pivotal coupling means suitable to rotatably couple said lid to said support frame defining a plurality of operating conditions between said closing condition, wherein said lid is housed in said seat , and an at least partial opening condition, wherein said lid is at least partially arranged outside said seat ; said pivotal coupling means comprising a rotation shaft defining a rotation axis (X) for said lid ; and - a containment seat , having a walkable protection element , connected to a perimeter portion of said support frame , said containment seat being suitable to house at least partially said rotation shaft of said pivotal coupling means , - a first wall and a second wall , arranged opposite to each other and connected to said protection element , respectively defining an open support portion suitable to support from below said rotation shaft , wherein said first and second wall respectively have a guiding portion suitable to facilitate the insertion of said rotation shaft in said support portions .
A touch sensing device, comprising: an electrode matrix comprising a plurality of driving lines (L D ) and a plurality of sensing lines (Ls), wherein each driving line (L D ) crosses each sensing line (Ls) to form a coupling node ; a driving circuit to apply signal to said electrode matrix ; a sensing circuit to sense signals from said electrode matrix ; a first switching unit configured to connect the driving lines (L D ) to the driving circuit in sequence one at a time; characterized by a second switching unit , comprising a plurality of switches , wherein one end of each switch connects to the corresponding sensing line, and the other end of each switch connects to a common point; and the sensing circuit configured to connect to the common point (T); wherein, in a first scanning stage (coarse scan), the switches are closed in sequence by at least two switches each time, and the sensing circuit determines whether there is a change in capacitance at least at one of the driving lines (L D ); and in a second scanning stage, the switches are closed in sequence by one switch each time, and the sensing circuit determines whether there is a change in capacitance at least on one of the coupling nodes of the driving line (L D ) where the change in capacitance was determined. an electrode matrix comprising a plurality of driving lines (L D ) and a plurality of sensing lines (Ls), wherein each driving line (L D ) crosses each sensing line (Ls) to form a coupling node ; a driving circuit to apply signal to said electrode matrix ; a sensing circuit to sense signals from said electrode matrix ; a first switching unit configured to connect the driving lines (L D ) to the driving circuit in sequence one at a time; characterized by a second switching unit , comprising a plurality of switches , wherein one end of each switch connects to the corresponding sensing line, and the other end of each switch connects to a common point; and the sensing circuit configured to connect to the common point (T); wherein, in a first scanning stage (coarse scan), the switches are closed in sequence by at least two switches each time, and the sensing circuit determines whether there is a change in capacitance at least at one of the driving lines (L D ); and in a second scanning stage, the switches are closed in sequence by one switch each time, and the sensing circuit determines whether there is a change in capacitance at least on one of the coupling nodes of the driving line (L D ) where the change in capacitance was determined.
A communication method, comprising: obtaining, (S304, S506), by a server, information about a first video stream and information about a second video stream, wherein information about each video stream comprises evaluation information of the video stream and an address corresponding to the video stream, and the first video stream and the second video stream are video streams related to a first event; selecting (S305, S507), by the server, the first video stream for a first vehicle based on evaluation information of the first video stream and evaluation information of the second video stream; and sending (S306, S508), by the server, a first message to the first vehicle, wherein the first message comprises an address corresponding to the first video stream, wherein the evaluation information of each video stream comprises evaluation information of an image in the video stream, and the evaluation information of the image comprises one or more of the following: integrity of the image, wherein the integrity of the image is a ratio of an area of an event detection region to an area of a region of interest, ROI region, in the image; and a deviation degree of the image, wherein the deviation degree of the image is a deviation degree of a geometric center of the event detection region in the image relative to a center position of the image. obtaining, (S304, S506), by a server, information about a first video stream and information about a second video stream, wherein information about each video stream comprises evaluation information of the video stream and an address corresponding to the video stream, and the first video stream and the second video stream are video streams related to a first event; selecting (S305, S507), by the server, the first video stream for a first vehicle based on evaluation information of the first video stream and evaluation information of the second video stream; and sending (S306, S508), by the server, a first message to the first vehicle, wherein the first message comprises an address corresponding to the first video stream, wherein the evaluation information of each video stream comprises evaluation information of an image in the video stream, and the evaluation information of the image comprises one or more of the following: integrity of the image, wherein the integrity of the image is a ratio of an area of an event detection region to an area of a region of interest, ROI region, in the image; and a deviation degree of the image, wherein the deviation degree of the image is a deviation degree of a geometric center of the event detection region in the image relative to a center position of the image. integrity of the image, wherein the integrity of the image is a ratio of an area of an event detection region to an area of a region of interest, ROI region, in the image; and a deviation degree of the image, wherein the deviation degree of the image is a deviation degree of a geometric center of the event detection region in the image relative to a center position of the image.
A peptide consisting of the amino acid sequence according to SEQ ID No. 23; or a pharmaceutically acceptable salt thereof.
Apparatus for laminating at least one layer onto a wound care article structure , comprising: a conveyor device having a support surface configured for supporting the wound care article structure ; a first lamination arrangement configured for laminating at least one layer having at least one protection layer onto the wound care article structure ; a pressure arrangement having one or more pressure rolls configured to apply a pressure to the at least one layer laminated onto the wound care article structure to fix the at least one layer to the wound care article structure , wherein the one or more pressure rolls are adjustable in their distance to the wound care article structure or in their distance to a carrier of the wound care article structure ; and a delamination arrangement configured for delaminating the protective layer off the wound care article structure having the at least one layer laminated thereon. a conveyor device having a support surface configured for supporting the wound care article structure ; a first lamination arrangement configured for laminating at least one layer having at least one protection layer onto the wound care article structure ; a pressure arrangement having one or more pressure rolls configured to apply a pressure to the at least one layer laminated onto the wound care article structure to fix the at least one layer to the wound care article structure , wherein the one or more pressure rolls are adjustable in their distance to the wound care article structure or in their distance to a carrier of the wound care article structure ; and a delamination arrangement configured for delaminating the protective layer off the wound care article structure having the at least one layer laminated thereon.
An engine-and-electric-machine assembly, comprising an engine and an electric machine , and a crankshaft being provided in the engine , characterized in that : the crankshaft is provided with a main body (7-1), an extension section (7-3) that extends to an exterior of the engine , and a transition section 7-2 provided between the main body (7-1) and the extension section (7-3), the extension section (7-3) constitutes a rotation shaft of the electric machine , and a rotor of the electric machine is mounted on the extension section (7-3), the engine is provided adjacent to the electric machine , the electric machine is provided with a housing , and a left end of the housing is directly mounted to a cylinder block of the engine , to form a fixing and sealing face; and the electric machine is further provided with a right end cap , and the housing of the electric machine and the right end cap are integrally manufactured, a double oil seal is provided between the engine and the electric machine , to bidirectionally seal the engine and the electric machine , a sealing groove is provided on the cylinder block of the engine for mounting the double oil seal , and the double oil seal seals a spacing between the transition section (7-2) and the sealing groove on the cylinder block . the engine is provided adjacent to the electric machine , the electric machine is provided with a housing , and a left end of the housing is directly mounted to a cylinder block of the engine , to form a fixing and sealing face; and the electric machine is further provided with a right end cap , and the housing of the electric machine and the right end cap are integrally manufactured, a double oil seal is provided between the engine and the electric machine , to bidirectionally seal the engine and the electric machine , a sealing groove is provided on the cylinder block of the engine for mounting the double oil seal , and the double oil seal seals a spacing between the transition section (7-2) and the sealing groove on the cylinder block .
A mixing arrangement for an exhaust-gas system of an internal combustion engine for mixing exhaust gas and reactant, comprising: - an exhaust-gas guiding component which delimits an exhaust-gas flow volume and which extends in the direction of a longitudinal axis (L), - a reactant dispensing unit for dispensing reactant (R) into the exhaust-gas flow volume , - an exhaust-gas flow volume dividing arrangement with a plurality of tubular dividing bodies which are arranged nested one inside the other, the exhaust-gas flow volume dividing arrangement dividing the exhaust-gas flow volume in a dividing length region (B) into a plurality of partial exhaust-gas flow volumes , the plurality of partial exhaust-gas flow volumes comprising a central partial exhaust-gas flow volume and at least one partial exhaust-gas flow volume which surrounds the central partial exhaust-gas flow volume in a ring-like manner, characterized in that the exhaust-gas flow volume dividing arrangement is arranged downstream of the reactant dispensing unit in such a way that a partial flux (T 1 , T 2 , T 3 ) of a mixture of exhaust gas (A) and reactant (R) may flow through each partial exhaust-gas flow volume . - an exhaust-gas guiding component which delimits an exhaust-gas flow volume and which extends in the direction of a longitudinal axis (L), - a reactant dispensing unit for dispensing reactant (R) into the exhaust-gas flow volume , - an exhaust-gas flow volume dividing arrangement with a plurality of tubular dividing bodies which are arranged nested one inside the other, the exhaust-gas flow volume dividing arrangement dividing the exhaust-gas flow volume in a dividing length region (B) into a plurality of partial exhaust-gas flow volumes , the plurality of partial exhaust-gas flow volumes comprising a central partial exhaust-gas flow volume and at least one partial exhaust-gas flow volume which surrounds the central partial exhaust-gas flow volume in a ring-like manner,
A molding film comprising mainly a cyclic olefin-based resin, wherein when an X surface represents one of surfaces of the film and a Y surface represents another surface of the film, the X surface and the Y surface both have a surface glossiness of 50% or less, wherein the surface glossiness was measured according to JIS Z-8741 .
A carbon nanotube strand wire in which a plurality of carbon nanotube wires of a plurality of bundled carbon nanotube aggregates configured of a plurality of carbon nanotubes are twisted together, wherein at least one of a number of twists t1 of the carbon nanotube wires and a number of twists t2 of the carbon nanotube strand wire is equal to or greater than 2500 T/m, or the number of twists t1 of the carbon nanotube wires is equal to or greater than 1000 T/m and less than 2500 T/m while the number of twists t2 of the carbon nanotube strand wire is equal to or greater than 500 T/m and less than 2500 T/m, or the number of twists t1 of the carbon nanotube wires is equal to or greater than 500 T/m and less than 1000 T/m while the number of twists t2 of the carbon nanotube strand wire is equal to or greater than 1000 T/m and less than 2500 T/m. wherein at least one of a number of twists t1 of the carbon nanotube wires and a number of twists t2 of the carbon nanotube strand wire is equal to or greater than 2500 T/m, or the number of twists t1 of the carbon nanotube wires is equal to or greater than 1000 T/m and less than 2500 T/m while the number of twists t2 of the carbon nanotube strand wire is equal to or greater than 500 T/m and less than 2500 T/m, or the number of twists t1 of the carbon nanotube wires is equal to or greater than 500 T/m and less than 1000 T/m while the number of twists t2 of the carbon nanotube strand wire is equal to or greater than 1000 T/m and less than 2500 T/m.