mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting assembly for a lighting apparatus of a motor vehicle, comprising: a mounting plate comprising mounting sub-plates ; a light source assembly mounted on the mounting plate, the light source assembly comprising a plurality of first light sources configured for emitting light with a first color and a plurality of second light sources configured for emitting light with a second color; and a light guide member having a light entrance section and a light guide section integrally formed, the light receiving parts of the light entrance section and the light guide section are arranged at an angle relative to each other, and a deflecting portion is provided at a transition part between the light receiving parts and the light guide section and configured to reflect light emitted from a corresponding light source and entering through a corresponding light receiving part towards the light guide section, wherein the plurality of first light sources and the plurality of second light sources of the light source assembly are mounted on different ones of the mounting sub-plates of the mounting plate respectively, characterized in that the different mounting sub plates with different light sources mounted thereon are arranged side by side on a same side of the light guide member , wherein the light entrance section comprises a plurality of first light receiving parts and a plurality of second light receiving parts , the first light receiving parts being assigned to the first light sources , the second light receiving parts being assigned to the second light sources , and wherein the first light receiving parts and the second light receiving parts are arranged in sequence in a light exiting direction, and arranged alternately at the light guide section. a mounting plate comprising mounting sub-plates ; a light source assembly mounted on the mounting plate, the light source assembly comprising a plurality of first light sources configured for emitting light with a first color and a plurality of second light sources configured for emitting light with a second color; and a light guide member having a light entrance section and a light guide section integrally formed, the light receiving parts of the light entrance section and the light guide section are arranged at an angle relative to each other, and a deflecting portion is provided at a transition part between the light receiving parts and the light guide section and configured to reflect light emitted from a corresponding light source and entering through a corresponding light receiving part towards the light guide section, wherein the plurality of first light sources and the plurality of second light sources of the light source assembly are mounted on different ones of the mounting sub-plates of the mounting plate respectively, characterized in that the different mounting sub plates with different light sources mounted thereon are arranged side by side on a same side of the light guide member , wherein the light entrance section comprises a plurality of first light receiving parts and a plurality of second light receiving parts ,
An electronic device comprising: a first housing ; a second housing ; a hinge device configured to foldably interconnect the first housing and the second housing with a folding axis (A1) extending in a first direction; a hinge housing configured to accommodate at least a portion of the hinge device and disposed between the first housing and the second housing ; a first electrical object disposed in the first housing ; a second electrical object disposed in the second housing ; and a connection assembly configured to interconnect the first electrical object and the second electrical object, the connection assembly includes: a connection member at least partially disposed in the hinge housing , configured to electrically interconnect the first electrical object and the second electrical object, and including a flexible material to be at least partially deformable, a support unit coupled to the connection member and characterized in that a sliding connection unit configured to connect the support unit to each of the first housing and the second housing to be slidable in a second direction perpendicular to the first direction. a first housing ; a second housing ; a hinge device configured to foldably interconnect the first housing and the second housing with a folding axis (A1) extending in a first direction; a hinge housing configured to accommodate at least a portion of the hinge device and disposed between the first housing and the second housing ; a first electrical object disposed in the first housing ; a second electrical object disposed in the second housing ; and a connection assembly configured to interconnect the first electrical object and the second electrical object, the connection assembly includes: a connection member at least partially disposed in the hinge housing , configured to electrically interconnect the first electrical object and the second electrical object, and including a flexible material to be at least partially deformable, a support unit coupled to the connection member and characterized in that a sliding connection unit configured to connect the support unit to each of the first housing and the second housing to be slidable in a second direction perpendicular to the first direction. a connection member at least partially disposed in the hinge housing , configured to electrically interconnect the first electrical object and the second electrical object, and including a flexible material to be at least partially deformable, a support unit coupled to the connection member and characterized in that a sliding connection unit configured to connect the support unit to each of the first housing and the second housing to be slidable in a second direction perpendicular to the first direction.
A macro cell configured to operate in a heterogeneous network having at least one small cell , the macro cell comprising: a processor ; and a communications subsystem , wherein the macro cell is configured to: determine a mobility state of a user equipment by comparing a mobility of the user equipment with a mobility state threshold; characterized in that the macro cell is configured to: send the threshold to the user equipment, the threshold being used by the user equipment to determine whether to provide a request to associate only with the macro cell; receive the request from the user equipment to be associated with the macro cell only, the request to associate only with the macro cell being provided by the user equipment only when the mobility state of the user equipment is above or equal to the threshold; and limit the user equipment to associate only with the macro cell based on the determining and the receiving. a processor ; and a communications subsystem , determine a mobility state of a user equipment by comparing a mobility of the user equipment with a mobility state threshold; characterized in that the macro cell is configured to: send the threshold to the user equipment, the threshold being used by the user equipment to determine whether to provide a request to associate only with the macro cell; receive the request from the user equipment to be associated with the macro cell only, the request to associate only with the macro cell being provided by the user equipment only when the mobility state of the user equipment is above or equal to the threshold; and limit the user equipment to associate only with the macro cell based on the determining and the receiving. send the threshold to the user equipment, the threshold being used by the user equipment to determine whether to provide a request to associate only with the macro cell; receive the request from the user equipment to be associated with the macro cell only, the request to associate only with the macro cell being provided by the user equipment only when the mobility state of the user equipment is above or equal to the threshold; and limit the user equipment to associate only with the macro cell based on the determining and the receiving.
A method for applying a coating to a substrate surface, the method comprising: determining a critical velocity; cold spraying a coating material against the substrate surface at a first velocity to modify the adhesion properties of the surface of the substrate; and cold spraying the same coating material against the substrate surface at a second velocity to adhere the coating material to the surface of the substrate to coat the substrate, wherein the first velocity is lower than the critical velocity and the second velocity is greater than the critical velocity, the critical velocity is a threshold velocity below which the coating material is substantially deflected by the surface of the substrate and above which the coating material substantially adheres to the surface of the substrate, and wherein cold spraying the same coating material comprises cold spraying the coating material after a time delay, the time delay measured as of the moment the cold spraying of coating material at the first velocity ends, characterized in that : cold spraying the coating material comprises cold spraying a material having an average particle size, the average particle size of the material being substantially the same at the first and second velocity. determining a critical velocity; cold spraying a coating material against the substrate surface at a first velocity to modify the adhesion properties of the surface of the substrate; and cold spraying the same coating material against the substrate surface at a second velocity to adhere the coating material to the surface of the substrate to coat the substrate, wherein the first velocity is lower than the critical velocity and the second velocity is greater than the critical velocity, the critical velocity is a threshold velocity below which the coating material is substantially deflected by the surface of the substrate and above which the coating material substantially adheres to the surface of the substrate, and wherein cold spraying the same coating material comprises cold spraying the coating material after a time delay, the time delay measured as of the moment the cold spraying of coating material at the first velocity ends,
Transfer unit for transferring blister packs , having a first transfer arm , which can be moved between a first receiving location for receiving a first blister pack from a first receiving position and a first discharging location for setting down the first blister pack in a first discharging position , and having a second transfer arm , which can be moved between a second receiving location for receiving a second blister pack from a second receiving position and a second discharging location for setting down the second blister pack in a second discharging position , wherein the first and the second transfer arms are arranged on either side of a longitudinal centre plane (L) of the transfer unit , wherein each transfer arm has a first segment and a second segment , wherein the first segment of each transfer arm is fastened such that it can be rotated about an associated first axis (A1, A1'), which runs perpendicularly in relation to the longitudinal centre plane (L), wherein the first segment of each transfer arm has a portion on which the second segment is fastened such that it can be rotated about a second axis (A2, A2') which can be altered in location and runs essentially perpendicularly in relation to the associated first axis (A1, A1'), wherein a retaining device for receiving and retaining a blister pack is arranged on the second segment , wherein the transfer arms are configured and activated such that the movement of the transfer arms from the first or second receiving location to the first or second discharging location, and back, is a combined movement which is made up at least of a first rotary movement of the first segment and of the second segment about the first axis (A1, A1') and of a second rotary movement of the second segment about the second axis (A2, A2'), wherein the first and second receiving positions are arranged in a longitudinal row one behind the other in the region of the longitudinal centre plane (L) and the first and second discharging positions are arranged offset outwards in relation to the longitudinal centre plane (L), wherein the second axis (A2) of the first transfer arm is arranged such that, during the first rotary movement of the first segment of the first transfer arm , the second axis (A2) of the first transfer arm moves in a first plane (E1), which intersects the first receiving position or the lateral projection thereof in a first straight line (L1), which is offset laterally in relation to the centre (M1) of the first receiving position , and wherein the second axis (A2') of the second transfer arm is arranged such that, during the first rotary movement of the first segment of the second transfer arm , the second axis (A2') of the second transfer arm moves in a second plane (E2), which intersects the second receiving position or the lateral projection thereof in a second straight line (L2), which is offset laterally in relation to the centre (M2) of the second receiving position .
An apparatus, comprising: one or more execution units each comprising a plurality of pipeline units; a fetch unit configured to fetch multiple multi-part instructions from an instruction stream; a plurality of address generator units ; and decode circuitry configured to decode sub-instructions included in one of the multi-part instructions, wherein the sub-instructions are associated with different threads encoded in the instruction stream; characterized in that the apparatus is configured to independently control different ones of the address generator units , based on sub-instructions included in at least one of the multi-part instructions, to generate distinct source addresses for different threads; wherein different ones of the plurality of pipeline units are configured to execute sub-instructions included in the at least one of the multi-part instructions associated with different threads according to respective source addresses; and wherein the instruction stream was generated by a compiler configured to encode the different threads of sub-instructions into the instruction stream. one or more execution units each comprising a plurality of pipeline units; a fetch unit configured to fetch multiple multi-part instructions from an instruction stream; a plurality of address generator units ; and decode circuitry configured to decode sub-instructions included in one of the multi-part instructions, wherein the sub-instructions are associated with different threads encoded in the instruction stream; characterized in that the apparatus is configured to independently control different ones of the address generator units , based on sub-instructions included in at least one of the multi-part instructions, to generate distinct source addresses for different threads; wherein different ones of the plurality of pipeline units are configured to execute sub-instructions included in the at least one of the multi-part instructions associated with different threads according to respective source addresses; and wherein the instruction stream was generated by a compiler configured to encode the different threads of sub-instructions into the instruction stream.
A method of wireless communication over a shared medium by a user equipment, UE, comprising: receiving , from a base station, control information in a first portion of a transmission opportunity, TXOP, wherein the control information indicates a configuration for triggering a communication of at least one shared medium reservation signal associated with one or more remaining portions of the TXOP; in response to receiving the control information in the first portion of the TXOP, monitoring for or transmitting the at least one shared medium reservation signal in a portion of the TXOP subsequent to the first portion, based on the configuration; and receiving at least one downlink, DL, signal or transmitting at least one uplink, UL, signal in a remaining part of the first portion not occupied by the control information, wherein the DL signal or the UL signal comprises a signal other than a shared medium reservation signal. receiving , from a base station, control information in a first portion of a transmission opportunity, TXOP, wherein the control information indicates a configuration for triggering a communication of at least one shared medium reservation signal associated with one or more remaining portions of the TXOP; in response to receiving the control information in the first portion of the TXOP, monitoring for or transmitting the at least one shared medium reservation signal in a portion of the TXOP subsequent to the first portion, based on the configuration; and receiving at least one downlink, DL, signal or transmitting at least one uplink, UL, signal in a remaining part of the first portion not occupied by the control information, wherein the DL signal or the UL signal comprises a signal other than a shared medium reservation signal.
A method of calibrating an anemotropometer of a wind energy installation , which anemotropometer is arranged, together with two anemometers , on a leeward side of a rotor of the wind energy installation , wherein the method comprises the following method steps: measuring (S1) a first wind speed (WS1) by means of a first anemometer , a second wind speed (WS2) by means of a second anemometer and a wind direction (μ) by means of the anemotropometer , wherein a plurality of measurement values are recorded over a specific period of time; determining (S2) differences between the first wind speed (WS1) and the second wind speed (WS2) at respective points in time which are at least substantially the same; determining (S3) a model function (Δ i , Δ j ) for a relationship between measured wind directions (μ) and differences which have been determined which correspond at least substantially to the same points in time, wherein at least a first model function (Δ i ) is determined for a first wind speed bin (i) and a second model function (j) is determined for a second wind speed bin (Δ j ); determining (S4) at least one intersection point value (SP) of the measured wind direction (μ) at which the first model function (Δ i ) and the second model function (Δ j ) intersect; outputting (S5) the intersection point value (SP) as a mounting angle (φ) of the anemotropometer . measuring (S1) a first wind speed (WS1) by means of a first anemometer , a second wind speed (WS2) by means of a second anemometer and a wind direction (μ) by means of the anemotropometer , wherein a plurality of measurement values are recorded over a specific period of time; determining (S2) differences between the first wind speed (WS1) and the second wind speed (WS2) at respective points in time which are at least substantially the same; determining (S3) a model function (Δ i , Δ j ) for a relationship between measured wind directions (μ) and differences which have been determined which correspond at least substantially to the same points in time, wherein at least a first model function (Δ i ) is determined for a first wind speed bin (i) and a second model function (j) is determined for a second wind speed bin (Δ j ); determining (S4) at least one intersection point value (SP) of the measured wind direction (μ) at which the first model function (Δ i ) and the second model function (Δ j ) intersect; outputting (S5) the intersection point value (SP) as a mounting angle (φ) of the anemotropometer .
Electrode for gas evolution in electrochemical processes comprising a metal substrate provided with a catalytic coating, said catalytic coating comprising a first protective layer in direct contact with the substrate, said first protective layer comprising platinum, in the form of metal or its oxides, and a second layer applied on top of said first protective layer, said second layer comprising platinum, palladium and an element selected from the group of rare earths, in the form of metals or their oxides, wherein said second layer comprises 15-40% by weight of platinum and 10-30% by weight of palladium and 40-75% by weight of an element selected from the group of rare earths referred to metals.
A wireless communication system comprising: a base station apparatus ; and a terminal device , the base station apparatus comprising: a first mapping unit configured to map first control information indicative of data allocation of downlink in a first frequency band which needs a license to use for wireless communication, a second mapping unit configured to map second control information indicative of presence of permission of data transmission of uplink in a second frequency band which does not need the license to use for the wireless communication, a generator configured to generate a control channel signal by arranging the first control information and the second control information on different regions of radio resource in a control channel of the first frequency band, and a transmitter configured to transmit the control channel signal generated by the generator to the terminal device . a base station apparatus ; and a terminal device , the base station apparatus comprising: a first mapping unit configured to map first control information indicative of data allocation of downlink in a first frequency band which needs a license to use for wireless communication, a second mapping unit configured to map second control information indicative of presence of permission of data transmission of uplink in a second frequency band which does not need the license to use for the wireless communication, a generator configured to generate a control channel signal by arranging the first control information and the second control information on different regions of radio resource in a control channel of the first frequency band, and a transmitter configured to transmit the control channel signal generated by the generator to the terminal device . a first mapping unit configured to map first control information indicative of data allocation of downlink in a first frequency band which needs a license to use for wireless communication, a second mapping unit configured to map second control information indicative of presence of permission of data transmission of uplink in a second frequency band which does not need the license to use for the wireless communication, a generator configured to generate a control channel signal by arranging the first control information and the second control information on different regions of radio resource in a control channel of the first frequency band, and a transmitter configured to transmit the control channel signal generated by the generator to the terminal device .