mhurhangee/patent-ind-claim-en huggingface dataset:
A method for utilizing timing advance group synchronization information, the method comprising: identifying a plurality of component carriers as part of a carrier aggregation operation, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; determining a plurality of timing advance groups, wherein each component carrier in the plurality of component carriers is included in one of the timing advance groups; identifying a first timing advance group (610-b) including only secondary component carriers (630-b, 630-c) from the plurality of timing advance groups; determining a reference downlink component carrier for the first timing advance group based at least in part on a Radio Resource Control, RRC, configuration that is different from a System Information Block 2, SIB2, linkage, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the first timing advance group. identifying a plurality of component carriers as part of a carrier aggregation operation, the plurality of component carriers comprising one or more downlink component carriers and two or more uplink component carriers; determining a plurality of timing advance groups, wherein each component carrier in the plurality of component carriers is included in one of the timing advance groups; identifying a first timing advance group (610-b) including only secondary component carriers (630-b, 630-c) from the plurality of timing advance groups; determining a reference downlink component carrier for the first timing advance group based at least in part on a Radio Resource Control, RRC, configuration that is different from a System Information Block 2, SIB2, linkage, wherein the reference downlink component carrier is determined from a set of activated downlink component carriers; and utilizing the determined reference downlink component carrier for timing adjustment within at least the first timing advance group.
An optical system, comprising a glass light pipe having a polygonal cross-section and having an input surface for receiving light from a light source and an output surface through which light exits the light pipe, wherein said light source comprises a plurality of light-emitting diodes providing light of different colors, a polymeric light-shaping element having an input surface optically coupled to the output surface of the glass light pipe to receive at least a portion of the light exiting the glass light pipe and having an output surface through which the light exits the light-shaping element, said polymeric light-shaping element having a plurality of microlenses on its output surface thereof, and a projection lens optically coupled to the output surface of the polymeric light-shaping element to receive light therefrom.
Axle system, in particular for use in commercial vehicles, the axle system comprising an axle tube and a handlebar , wherein the axle tube extends along a tube axis (R), wherein a connecting unit is provided which has a retaining element , a first clamping part and a force unit , wherein the first clamping part can be arranged at least partially on the side of the handlebar facing away from the axle tube and can be brought into non-positive engagement with the handlebar , wherein the force unit is designed to transmit a clamping force from the retaining element to the first clamping part indirectly or directly, wherein the retaining element has an engagement geometry with which the force unit can be brought into engagement in such a way that a form closure is produced between the force unit and the retaining element at least in a direction parallel to a force axis (A), wherein the engagement geometry is designed in such a way that the force unit can be brought into positive engagement with the retaining element at least two engagement positions spaced apart along the tube axis (R), wherein the retaining element is fixed to the axle tube in a material-locking manner, wherein the engagement geometry is formed as a recess on the retaining element , characterized in that the engagement geometry has its greatest extension parallel to the tube axis (R). wherein the axle tube extends along a tube axis (R), wherein a connecting unit is provided which has a retaining element , a first clamping part and a force unit , wherein the first clamping part can be arranged at least partially on the side of the handlebar facing away from the axle tube and can be brought into non-positive engagement with the handlebar , wherein the force unit is designed to transmit a clamping force from the retaining element to the first clamping part indirectly or directly, wherein the retaining element has an engagement geometry with which the force unit can be brought into engagement in such a way that a form closure is produced between the force unit and the retaining element at least in a direction parallel to a force axis (A), wherein the engagement geometry is designed in such a way that the force unit can be brought into positive engagement with the retaining element at least two engagement positions spaced apart along the tube axis (R), wherein the retaining element is fixed to the axle tube in a material-locking manner, wherein the engagement geometry is formed as a recess on the retaining element , characterized in that the engagement geometry has its greatest extension parallel to the tube axis (R).
Use of a polycarbosilane compound as a dispersant for a fluoropolymer in a thermoplastic resin composition comprising a polycarbonate resin as a thermoplastic resin, the fluoropolymer and the polycarbosilane compound.
A machine for producing substantially cylindrical articles of the tobacco processing industry; each article comprises a tubular body ; a container element , which is arranged in the area of a first end of the tubular body and has an end opening facing outwards, at least one side wall and a bottom wall opposite to said end opening ; a substantially rigid element , partially housed inside the container element and having an end portion , which protrudes through said end opening to the outside of the container element ; and loose material , which is arranged inside the container element between the substantially rigid element and the bottom wall ; the machine comprising a conveyor which is adapted to move at least one combined element , comprising (in particular, made up of) the substantially rigid element and the container element , along a given path (P2) through an insertion station (IS2) and comprises at least one seat , which is designed to house the combined element and comprises a blocking device adapted to block the substantially rigid element and to leave the container element at least partially free in the area of the insertion station (IS2); an insertion assembly , which is adapted to at least partially insert the combined element into the corresponding tubular body , is arranged in the area of the insertion station (IS2) and comprises a pushing unit to push at least one between the combined element and the tubular body towards the other.
A method for assembling a sensor, the method comprising: attaching at least two ferromagnetic sheets to each other; attaching at least one third ferromagnetic sheet to the attached at least two ferromagnetic sheets to form a ferromagnetic shield with an electronics module within the ferromagnetic shield; and disposing at least one sensor coil around the ferromagnetic shield , wherein the electronics module is configured to determine the position and/or the orientation of the sensor using a measurement of a signal induced in the at least one sensor coil . attaching at least two ferromagnetic sheets to each other; attaching at least one third ferromagnetic sheet to the attached at least two ferromagnetic sheets to form a ferromagnetic shield with an electronics module within the ferromagnetic shield; and disposing at least one sensor coil around the ferromagnetic shield , wherein the electronics module is configured to determine the position and/or the orientation of the sensor using a measurement of a signal induced in the at least one sensor coil .
An interferometric measurement system for measuring a spun optical fiber including multiple optical waveguides configured in the spun optical fiber , comprising: interferometric detection circuitry configured to detect (S12) measurement interferometric pattern data associated with each of the multiple optical waveguides when the spun optical fiber is placed under strain; data processing circuitry configured to determine (S13) compensation parameters that compensate for variations between an optimal configuration of the multiple optical waveguides in the spun optical fiber and an actual configuration of multiple optical waveguides in the spun optical fiber based on the measurement interferometric pattern data; and a memory configured to store (S14) the compensation parameters for compensating subsequently-obtained measurement interferometric pattern data for the fiber . interferometric detection circuitry configured to detect (S12) measurement interferometric pattern data associated with each of the multiple optical waveguides when the spun optical fiber is placed under strain; data processing circuitry configured to determine (S13) compensation parameters that compensate for variations between an optimal configuration of the multiple optical waveguides in the spun optical fiber and an actual configuration of multiple optical waveguides in the spun optical fiber based on the measurement interferometric pattern data; and a memory configured to store (S14) the compensation parameters for compensating subsequently-obtained measurement interferometric pattern data for the fiber .
A system for wireless reference signal distribution, the system comprising - an antenna array comprising a plurality of transceivers , the antenna array being arranged to transmit and receive a radio signal via the plurality of transceivers , - a synchronization signal generator arranged to transmit wirelessly at least one synchronization signal, each synchronization signal comprising at least one time-dependent signal component, wherein the at least one synchronization signal has at least one time-dependent signal component with an amplitude above a predetermined threshold during a total duration of the at least one synchronization signal, and wherein each transceiver is connected to a respective synchronization signal receiver arranged to receive the at least one synchronization signal and to generate a reference signal for the respective transceiver based on the received at least one synchronization signal. - an antenna array comprising a plurality of transceivers , the antenna array being arranged to transmit and receive a radio signal via the plurality of transceivers , - a synchronization signal generator arranged to transmit wirelessly at least one synchronization signal, each synchronization signal comprising at least one time-dependent signal component, wherein the at least one synchronization signal has at least one time-dependent signal component with an amplitude above a predetermined threshold during a total duration of the at least one synchronization signal, and
A method for capturing and decoding one or more decodable indicia with a bar code reader comprising at least a two-dimensional CMOS global shutter image sensor array and a second image sensor array , the method comprising: capturing, using the two-dimensional CMOS global shutter image sensor array , one or more frames of image data, wherein capturing the one or more frames of image data comprises simultaneously exposing all or substantially all of a plurality of first pixels of the two-dimensional CMOS global shutter image sensor array for a duration of an exposure period, wherein the one or more frames of image data comprise one or more two-dimensional decodable indicia; and decoding at least one of the one or more two-dimensional decodable indicia in the one or more frames of image data, characterized in that : the two-dimensional CMOS global shutter image sensor array is configured to capture the one or more frames of image data in a different direction than the second image sensor array is configured to capture other image data. capturing, using the two-dimensional CMOS global shutter image sensor array , one or more frames of image data, wherein capturing the one or more frames of image data comprises simultaneously exposing all or substantially all of a plurality of first pixels of the two-dimensional CMOS global shutter image sensor array for a duration of an exposure period, wherein the one or more frames of image data comprise one or more two-dimensional decodable indicia; and decoding at least one of the one or more two-dimensional decodable indicia in the one or more frames of image data, characterized in that : the two-dimensional CMOS global shutter image sensor array is configured to capture the one or more frames of image data in a different direction than the second image sensor array is configured to capture other image data.
Use of a frit for treating biotic diseases selected from the group consisting of: bacterial speck, bacterial canker, pith necrosis, bacterial spot, downy mildew, early blight, Septoria spot, Verticillium wilt, Pseudomonas spot, Xanthomonas spot, leaf spot, rot, bacterial necrosis, and mange wherein said frit is characterized in that it comprises: (i) from 20% to 70% by weight on the weight of the frit of one or more network-forming compounds selected from the group consisting of: diphosphorus pentoxide (P 2 O 5 ), silicon dioxide (SiO 2 ), diboron trioxide (B 2 O 3 ), and sulfur trioxide (SO 3 ); (ii) from 10% to 55% by weight on the weight of the frit of one or more network-modifying compounds selected from the group consisting of: aluminum oxide (Al 2 O 3 ), magnesium oxide (MgO), calcium oxide (CaO), sodium oxide (Na 2 O), potassium oxide (K 2 O), and calcium fluoride (CaF 2 ); (iii) from 20% to 60% by weight on the weight of the frit of one active compound consisting of zinc oxide (ZnO). (i) from 20% to 70% by weight on the weight of the frit of one or more network-forming compounds selected from the group consisting of: diphosphorus pentoxide (P 2 O 5 ), silicon dioxide (SiO 2 ), diboron trioxide (B 2 O 3 ), and sulfur trioxide (SO 3 ); (ii) from 10% to 55% by weight on the weight of the frit of one or more network-modifying compounds selected from the group consisting of: aluminum oxide (Al 2 O 3 ), magnesium oxide (MgO), calcium oxide (CaO), sodium oxide (Na 2 O), potassium oxide (K 2 O), and calcium fluoride (CaF 2 ); (iii) from 20% to 60% by weight on the weight of the frit of one active compound consisting of zinc oxide (ZnO).
An apparatus for processing recycled material, comprising: a first pulper having an inlet for receiving recycled material , a water inlet for producing a mixture of water and particles of recycled material, a first rotor unit (R1) configured to slush recycled material and a first screen plate connected to a first outlet configured to extract a first portion of the mixture of water and particles of recycled material from the first pulper ; a last pulper having a reject washer configured to remove coarse rejected recycled material from the last pulper ; and an upper channel from the first pulper to the last pulper , wherein the mixture of water and particles of recycled material is configured to flow over from the first pulper to the last pulper , characterized in that the apparatus further comprises: a bottom of the last pulper being lower than or at the same level as the first pulper ; a lower channel at the bottom of the first pulper extending to the last pulper ; and a gate at the lower channel , configured to cause, when open, the mixture of water and particles of recycled material to flush to the last pulper . a first pulper having an inlet for receiving recycled material , a water inlet for producing a mixture of water and particles of recycled material, a first rotor unit (R1) configured to slush recycled material and a first screen plate connected to a first outlet configured to extract a first portion of the mixture of water and particles of recycled material from the first pulper ; a last pulper having a reject washer configured to remove coarse rejected recycled material from the last pulper ; and an upper channel from the first pulper to the last pulper , wherein the mixture of water and particles of recycled material is configured to flow over from the first pulper to the last pulper , characterized in that the apparatus further comprises: a bottom of the last pulper being lower than or at the same level as the first pulper ; a lower channel at the bottom of the first pulper extending to the last pulper ; and a gate at the lower channel , configured to cause, when open, the mixture of water and particles of recycled material to flush to the last pulper . a bottom of the last pulper being lower than or at the same level as the first pulper ; a lower channel at the bottom of the first pulper extending to the last pulper ; and a gate at the lower channel , configured to cause, when open, the mixture of water and particles of recycled material to flush to the last pulper .
At least one halogenated aryl ester of an unsaturated fatty acid, wherein the unsaturated fatty acid is cyclopropanated, and wherein the aryloxy group of the ester has at least one hydrogen atom replaced with a fluorine atom, and wherein the aryl group is moncyclic or multicyclic for use in treating one or more diseases, conditions, and disorders, said treatment comprising administering to a patient in need thereof an effective amount of said at least one halogenated aryl ester of an unsaturated fatty acid, wherein the unsaturated fatty acid is cyclopropanated, and wherein the aryloxy group of the ester has at least one hydrogen atom replaced with a fluorine atom, and wherein the aryl group is moncyclic or multicyclic, wherein the diseases, conditions and disorders are neurodegenerative diseases or conditions, neuroaffective disorders, stroke, mental retardation, and brain injury.
An aluminium alloy wrought product for structural members having a chemical composition consisting of, in wt.%: Cu 3.2 to 4.4 Li 0.8 to 1.4 Mg 0.20 to 0.90 Mn 0.10 to 0.8 Zn 0.20 to 0.80, one or more elements selected from the group consisting of: Zr 0.05 to 0.25, Cr 0.05 to 0.30, Ti 0.01 to 0.25, Sc 0.05 to 0.4, Hf 0.05 to 0.4, Ag < 0.05 Fe < 0.15 Si < 0.15, unavoidable impurities and balance aluminium.
An adaption apparatus, comprising a first Universal Serial Bus (USB) interface and a second USB interface, wherein the first USB interface is a USB Type-C interface and the second USB interface comprises an identification (ID) pin; a power signal pin of the first USB interface is electrically connected to a power signal pin of the second USB interface; characterized in that a first channel configuration signal pin of the first USB interface is electrically connected to the ID pin of the second USB interface using a first resistor; the ID pin of the second USB interface is electrically connected to the power signal pin of the second USB interface using a second resistor; a resistance value of the first resistor meets a criterion followed by a first device to identify a UFP device according to the USB Type-C protocol; and a sum of the resistance value of the first resistor and a resistance value of the second resistor meets a criterion followed by the first device to identify a DFP device according to the USB Type-C protocol, and the first device is a device comprising a USB Type-C interface.
A multi-layer absorbent material comprising: a topsheet , a backsheet , a central absorbent layer positioned between the topsheet and the backsheet , said central absorbent layer comprising superabsorbent polymer particles , an acquisition and distribution layer positioned between the topsheet and the central absorbent layer for receiving fluids from the topsheet and transferring the fluids for absorption to the central absorbent layer , and a booster absorbent layer positioned between the acquisition and distribution layer and the central absorbent layer , the booster absorbent layer comprising a nonwoven carrier with superabsorbent polymer particles , whereby the booster absorbent layer comprises a higher concentration of superabsorbent polymer particles than the central absorbent layer , the concentration of superabsorbent polymer particles on a layer being defined as the amount of the absorbent material divided by the surface area of the layer over which the absorbent material is spread out, characterized in that the central absorbent layer is comprising a fluffless absorbent layer and superabsorbent polymer particles , in that the central and/or booster absorbent layer comprise superabsorbent polymer particles which are distributed according to a pattern, and in that the amount of superabsorbent polymer particles in the booster absorbent layer and the amount of superabsorbent polymer particles in the central absorbent layer differ by less than 50%.
A vehicle-mounted type back scattering inspection system, comprising a carriage and a back scattering imaging device , wherein the back scattering imaging device has a vehicle-mounted working state and a ground working state, and in the vehicle-mounted working state, the back scattering imaging device performs inspection work in the carriage ; in the ground working state, the back scattering imaging device performs the inspection work on the ground at the outside of the carriage ; and the back scattering imaging device is separately arranged relative to the carriage and is movable between the carriage and the ground to switch between the vehicle-mounted working state and the ground working state; wherein the vehicle-mounted type back scattering inspection system comprises a channel structure configured to provide a channel for the back scattering imaging device to move between the carriage and the ground; wherein the carriage comprises a carriage body having an opening, and the channel structure comprises a plate body arranged at the opening, wherein the plate body is rotatably arranged relative to the carriage body to form an inclined plane extending from the carriage body to the ground, the back scattering imaging device is configured to be movable along the inclined plane to leave or enter the carriage body ; and/or, the plate body is movably arranged along vertical direction to drive the back scattering imaging device to move between the height where the carriage body is located and the ground; and wherein the plate body is configured to open or close the opening of the carriage body , and in the vehicle-mounted working state, the plate body closes the opening; and during switching between the vehicle-mounted working state and the ground working state, the plate body opens the opening.