mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication at a user equipment , UE, comprising: receiving (210; 1605; 1705) a downlink, DL, synchronization signal from a base station on one or more DL beams , wherein each of the one or more DL beams are received in a respective symbol of a synchronisation subframe; identifying (215; 1610; 1710) a selected DL beam of the one or more DL beams for communications from the base station to the UE based on at least a signal quality of the DL synchronisation signal received on the one or more DL beams; receiving an indication, from the base station, indicating whether beam correspondence between one or more DL beams from the base station and one or more uplink, UL, beams at the base station is absent or present; and transmitting (225; 1615; 1715), in response to the indication from the base station indicating that beam correspondence is absent, on a plurality of UL beams at the UE a random access channel, RACH, message to the base station , using one of a resource or a RACH waveform, wherein the one of a resource or the RACH waveform is selected based at least in part on the selected DL beam, and wherein the RACH message is transmitted in each symbol of the corresponding random access subframe. receiving (210; 1605; 1705) a downlink, DL, synchronization signal from a base station on one or more DL beams , wherein each of the one or more DL beams are received in a respective symbol of a synchronisation subframe; identifying (215; 1610; 1710) a selected DL beam of the one or more DL beams for communications from the base station to the UE based on at least a signal quality of the DL synchronisation signal received on the one or more DL beams; receiving an indication, from the base station, indicating whether beam correspondence between one or more DL beams from the base station and one or more uplink, UL, beams at the base station is absent or present; and transmitting (225; 1615; 1715), in response to the indication from the base station indicating that beam correspondence is absent, on a plurality of UL beams at the UE a random access channel, RACH, message to the base station , using one of a resource or a RACH waveform, wherein the one of a resource or the RACH waveform is selected based at least in part on the selected DL beam, and wherein the RACH message is transmitted in each symbol of the corresponding random access subframe.
An air supply system for a rail vehicle, having: - a group comprising a plurality of electrical consumers such as a compressor, air dryer, valve, etc., this plurality of electrical consumers each performing different functions of the air supply system along a flow of the compressed air, and - a converter , which is coupled to a power supply of the rail vehicle, for adapting the voltage and/or frequency provided by the power supply to an operating voltage and/or an operating frequency of at least one electrical consumer by means of which that electrical consumer is to be operated, characterised in that the converter is assigned to at least two, preferably all, of the group comprising a plurality of electrical consumers such that the converter is able to control, in particular closed-loop control, and/or monitor the operation of the at least two of the group comprising a plurality of electrical consumers. - a group comprising a plurality of electrical consumers such as a compressor, air dryer, valve, etc., this plurality of electrical consumers each performing different functions of the air supply system along a flow of the compressed air, and - a converter , which is coupled to a power supply of the rail vehicle, for adapting the voltage and/or frequency provided by the power supply to an operating voltage and/or an operating frequency of at least one electrical consumer by means of which that electrical consumer is to be operated,
A plate-shaped heat dissipation member comprising a metal-silicon carbide composite containing aluminum or magnesium, wherein at least one of two main surfaces of the heat dissipation member is curved to be convex in an outward direction of the heat dissipation member, characterized in that , when a flatness of the one main surface defined by JIS B 0621 is represented by f 1 and a flatness of the other main surface different from the one main surface defined by JIS B 0621 is represented by f 2 , f 2 is less than f 1 by 10 um or more, wherein JIS B 0621 defines the flatness as a minimum interval between two planes that are geometrically parallel to each other when a planar body is interposed between the two planes. wherein at least one of two main surfaces of the heat dissipation member is curved to be convex in an outward direction of the heat dissipation member, characterized in that , when a flatness of the one main surface defined by JIS B 0621 is represented by f 1 and a flatness of the other main surface different from the one main surface defined by JIS B 0621 is represented by f 2 , f 2 is less than f 1 by 10 um or more, wherein JIS B 0621 defines the flatness as a minimum interval between two planes that are geometrically parallel to each other when a planar body is interposed between the two planes.
A package comprising: an integrated circuit die having a first terminal and a second terminal; a first package lead coupled to the first terminal; a second package lead coupled to the second terminal; and an impedance matching network coupled to the second terminal and comprising a first inductor and a first capacitor , wherein the first capacitor is an integrated DC decoupling capacitor arranged on the integrated circuit die; wherein the first inductor comprises first bond wire connections coupled between the second terminal and a first bond pad on the die, and second bond wire connections coupled between the first bond pad and a second bond pad coupled to the first capacitor; wherein the first bond wire connections and the second bond wire connections are connected via the first bond pad; wherein the first bond pad is arranged in between the first package lead and the second terminal; wherein the first bond wire connections and the second bond wire connections are adjacently arranged and in that the first inductor is a shunt inductor. an integrated circuit die having a first terminal and a second terminal; a first package lead coupled to the first terminal; a second package lead coupled to the second terminal; and an impedance matching network coupled to the second terminal and comprising a first inductor and a first capacitor , wherein the first capacitor is an integrated DC decoupling capacitor arranged on the integrated circuit die; wherein the first inductor comprises first bond wire connections coupled between the second terminal and a first bond pad on the die, and second bond wire connections coupled between the first bond pad and a second bond pad coupled to the first capacitor; wherein the first bond wire connections and the second bond wire connections are connected via the first bond pad; wherein the first bond pad is arranged in between the first package lead and the second terminal; wherein the first bond wire connections and the second bond wire connections are adjacently arranged and in that the first inductor is a shunt inductor.
Substrate plate to accommodate a substrate in an apparatus for spin-coating of substrate , - wherein the substrate plate has three suction points on one surface , wherein each of the suction points has a distance (A) from a surface of a plate , wherein each of said suction points comprises a respective tube , the length of the tube determining the distance (A) of the suction point respectively of the substrate from the surface of the plate , - wherein the suction point is connected to a vacuum source via a channel , wherein the channel is arranged in the substrate plate , wherein an air column is formed over the distance (A) between the surface of the substrate plate and the received substrate , wherein the substrate plate and the substrate rotate, wherein an inner region of the apparatus for spin-coating is atmospherically sealed, characterized in that the channel is milled into a surface of the substrate plate and is closed by a closure piece , wherein the suction point has a flexible surface, wherein the suction point has a distance of 1 mm to 30 mm, particularly preferably 7 mm from surface of the substrate plate , wherein the flexible surface is surface is formed in each case by a rubber lip , wherein the rubber lip is stretched onto an upper edge of the tube , so that an opening remains free. - wherein the substrate plate has three suction points on one surface , wherein each of the suction points has a distance (A) from a surface of a plate , wherein each of said suction points comprises a respective tube , the length of the tube determining the distance (A) of the suction point respectively of the substrate from the surface of the plate , - wherein the suction point is connected to a vacuum source via a channel , wherein the channel is arranged in the substrate plate , wherein an air column is formed over the distance (A) between the surface of the substrate plate and the received substrate , wherein the substrate plate and the substrate rotate, wherein an inner region of the apparatus for spin-coating is atmospherically sealed,
A radial head implant comprising a head , a threaded anchor and a shaft , wherein the head comprises an interlocking element for fastening the head ; wherein the threaded anchor comprises a self-tapping thread and a central through-opening ; and wherein the shaft comprises an upper shaft part and a lower shaft part , the upper shaft part being designed to be fastened to the head and the lower shaft part being designed to be inserted into a radius. wherein the threaded anchor comprises a self-tapping thread and a central through-opening ; and wherein the shaft comprises an upper shaft part and a lower shaft part , the upper shaft part being designed to be fastened to the head and the lower shaft part being designed to be inserted into a radius.
A robotic lawnmower system comprising a robotic lawnmower , said robotic lawnmower comprising two front wheels and a chassis , wherein said robotic lawnmower is characterized in that the two front wheels are arranged on a beam axle which is pivotably arranged to the chassis , wherein the beam axle is pivotably attached to the chassis through a pivot point which is an axle protruding from the chassis and extending through an opening in the beam axle , wherein the hole or opening is elongated to allow vertical movement of the pivot axle , and wherein sensors are arranged to determine whether the robotic lawnmower is being lifted or not by determining in which portion of the hole or opening the pivot axle is.
Method for operating an internal combustion engine which comprises a combustion unit , a generator coupled to the combustion unit , a fresh gas line , an exhaust gas line , an exhaust gas recirculation line which branches off from the exhaust gas line and opens into the fresh gas line , and at least one electric heating device which is integrated into the exhaust gas line or into the exhaust gas recirculation line , characterized in that during an overrun mode of the combustion unit , the heating device is operated with energy provided by the generator , and exhaust gas heated by means of the heating device is partially or completely guided via the exhaust gas recirculation line .
Laminated composite comprising at least one electronic substrate and a layer arrangement made up of at least a first layer of a first metal and/or a first metal alloy and made up of a second layer, adjoining said first layer, of a second metal and/or a second metal alloy, wherein the melting temperatures of the first layer and of the second layer are different, characterized in that , after the layer arrangement has been subjected to a thermal treatment, a region with at least one intermetallic phase is formed between the first layer and the second layer, wherein the first layer or the second layer is formed by a reaction solder which consists of a mixture of a base solder with an AgX, CuX or NiX alloy and the Ag, Cu or Ni content of the layer formed by the reaction solder is between 20% by weight and 80% by weight, wherein the component X in the AgX, CuX or NiX alloy is selected from the group consisting of B, Mg, Al, Si, Ca, Se, Ti, V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Ga, Ge, Y, Zr, Nb, Mo, Ag, In, Sn, Sb, Ba, Hf, Ta, W, Au, Bi, La, Ce, Pr, Nd, Gd, Dy, Sm, Er, Tb, Eu, Ho, Tm, Yb and Lu, wherein the Ag-X, CuX or NiX alloy do not have the same composition as that of the respective base solder, and wherein the melting temperature of the AgX, CuX or NiX alloy is higher than the melting temperature of the base solder, and the first layer or second layer which is not formed from the reaction solder is an Ag sintered layer.
A method of configuring a motor controller of an actuator system, comprising: loading configuration data of a linear variable differential transformer, LVDT, onto a removable circuit card assembly, CCA: installing the removable circuit card, CCA, on which the configuration data is pre-loaded, into the system; interconnecting the linear variable differential transformer to a motor controller through the removable circuit card assembly, CCA , wherein the LVDT is configured to measure displacement of a linear motor , and the motor controller is configured to control the motor based on displacement data from the LVDT; and transmitting the preloaded configuration data of the LVDT from memory of the CCA to the motor controller to calibrate the motor controller for use of the LVDT. installing the removable circuit card, CCA, on which the configuration data is pre-loaded, into the system; interconnecting the linear variable differential transformer to a motor controller through the removable circuit card assembly, CCA , wherein the LVDT is configured to measure displacement of a linear motor , and the motor controller is configured to control the motor based on displacement data from the LVDT; and transmitting the preloaded configuration data of the LVDT from memory of the CCA to the motor controller to calibrate the motor controller for use of the LVDT.
A network-based communication method, comprising: a source network apparatus receiving a stream of information-bearing packets, the stream comprising gaps between at least some of the information-bearing packets; the source network apparatus generating one or more spacer packets and generating an augmented stream of packets, the augmented stream of packets comprising the information-bearing packets and further comprising spacer packets located within at least some of said gaps; the source network apparatus outputting the augmented stream of packets to a network link from an output of the source network apparatus; the augmented stream of packets travelling through one or more network links between the source network apparatus and a destination network apparatus ; the destination network apparatus receiving the augmented stream of packets at an input of the destination network apparatus; the destination network apparatus determining whether each received packet is an information-bearing packet or a spacer packet; the destination network apparatus outputting or processing the received information-bearing packets , or outputting or processing information from the received information-bearing packets; and the destination network apparatus discarding the received spacer packets; characterised by : the source network apparatus generating the augmented stream of packets such that the spacing of the information-bearing packets in the augmented stream is the same as the spacing of the corresponding information-bearing packets in the received stream of information-bearing packets. a source network apparatus receiving a stream of information-bearing packets, the stream comprising gaps between at least some of the information-bearing packets; the source network apparatus generating one or more spacer packets and generating an augmented stream of packets, the augmented stream of packets comprising the information-bearing packets and further comprising spacer packets located within at least some of said gaps; the source network apparatus outputting the augmented stream of packets to a network link from an output of the source network apparatus; the augmented stream of packets travelling through one or more network links between the source network apparatus and a destination network apparatus ; the destination network apparatus receiving the augmented stream of packets at an input of the destination network apparatus; the destination network apparatus determining whether each received packet is an information-bearing packet or a spacer packet; the destination network apparatus outputting or processing the received information-bearing packets , or outputting or processing information from the received information-bearing packets; and the destination network apparatus discarding the received spacer packets;
An expression vector comprising a first nucleic acid encoding a short isoform of the NXNL1 gene, Rod-derived Cone Viability Factor (RdCVF) and a second nucleic acid encoding a long isoform of the NXNL1 gene, RdCVFL.
A temperature measuring device (100; 100A) comprising: first and second semiconductor elements (Q1, Q2) each of which has a p-n junction; a transistor group including a plurality of transistors (M1-Mn) of which respective sources are connected to a power source and of which respective gates are connected to each other, the plurality of transistors (M1-Mn) constituting a current source, the transistor group being configured to output a first current (I1) and a second current (I2) having a different magnitude from the first current (I1) to the first and second semiconductor elements (Q1, Q2), respectively, so that the first current (I1) and the second current (I2) cause forward voltages (Vbe1, Vbe2) across the p-n junctions in the first and second semiconductor elements (Q1, Q2); and a selector configured to sequentially select each transistor from among the plurality of transistors (M1-Mn) as a first transistor and, when selecting a given transistor from among the plurality of transistors (M1-Mn) as a first transistor, to select a corresponding plurality of second transistors different from that first transistor from among the plurality of transistors (M1-Mn), so that, for each sequentially selected first transistor, a drain of that first transistor is connected to one of the first and second semiconductor elements (Q1, Q2) and a drain of each of the corresponding plurality of second transistors is connected to the other of the first and second semiconductor elements (Q1, Q2). first and second semiconductor elements (Q1, Q2) each of which has a p-n junction; a transistor group including a plurality of transistors (M1-Mn) of which respective sources are connected to a power source and of which respective gates are connected to each other, the plurality of transistors (M1-Mn) constituting a current source, the transistor group being configured to output a first current (I1) and a second current (I2) having a different magnitude from the first current (I1) to the first and second semiconductor elements (Q1, Q2), respectively, so that the first current (I1) and the second current (I2) cause forward voltages (Vbe1, Vbe2) across the p-n junctions in the first and second semiconductor elements (Q1, Q2); and a selector configured to sequentially select each transistor from among the plurality of transistors (M1-Mn) as a first transistor and, when selecting a given transistor from among the plurality of transistors (M1-Mn) as a first transistor, to select a corresponding plurality of second transistors different from that first transistor from among the plurality of transistors (M1-Mn), so that, for each sequentially selected first transistor, a drain of that first transistor is connected to one of the first and second semiconductor elements (Q1, Q2) and a drain of each of the corresponding plurality of second transistors is connected to the other of the first and second semiconductor elements (Q1, Q2).
Hob module with a housing , a setting plate provided on the upper side of the housing and a vapor extractor device with a fan in order to suck away hazes and vapors produced during cooking from the upper side of the setting plate downwards in a flow direction, wherein an air inflow chamber is formed in the housing , which air inflow chamber is accessible from the outside through an air inlet opening provided in the setting plate and wherein the fan is accommodated in the housing downstream of the air inlet chamber , wherein the extractor device has a holder for a grease filter in front of the fan in the flow direction and comprises fastening means for attaching an odour filter , and wherein the fastening means for the odour filter are provided between the holder for the grease filter and the fan in the housing as viewed in the flow direction, characterized in that the fastening means for the odour filter have a receptacle which is accessible from a front side of the hob module and into which an odour filter can be inserted from the front side of the hob module, and in that the receptacle is accessible from the front side of the hob module and has a downwardly pointing insertion opening into which an odour filter can be inserted from the front side of the hob module by sliding it upwards from below.
A sole system with an article of footwear , comprising: an upper ; the sole system comprising a first auxetic layer and a second auxetic layer ; wherein the first auxetic layer includes a pattern of apertures and exhibits a first auxetic behavior; wherein the second auxetic layer includes a pattern of projections and exhibits a second auxetic behavior; wherein the first auxetic layer is disposed on a top surface of the second auxetic layer ; wherein the pattern of apertures of the first auxetic layer is configured to receive the pattern of projections of the second auxetic layer; and characterized in that : the first auxetic behavior is configured to occur independently of the second auxetic behavior. an upper ; the sole system comprising a first auxetic layer and a second auxetic layer ; wherein the first auxetic layer includes a pattern of apertures and exhibits a first auxetic behavior; wherein the second auxetic layer includes a pattern of projections and exhibits a second auxetic behavior; wherein the first auxetic layer is disposed on a top surface of the second auxetic layer ; wherein the pattern of apertures of the first auxetic layer is configured to receive the pattern of projections of the second auxetic layer; and characterized in that : the first auxetic behavior is configured to occur independently of the second auxetic behavior.
A method for preparing a decapeptide, wherein the decapeptide is characterized as being a peptide with at least one Aph derivative, in the 5 th position and one Aph derivative in the 6 th position in the decapeptide sequence, wherein the Aph derivative is selected from Aph(Hor) and Aph(Cbm), or a pharmaceutically acceptable salt thereof, wherein the method comprises the use of either p-nitrophenylalanine or a compound of formula X, wherein Pg is a terminal protecting group; or a nitro-peptide, which is characterized as a peptide comprising one or two p-nitrophenylalanine residues, followed by modification of nitrophenylalanine residues incorporated in the peptide sequence into the respective Aph derivative Aph(Hor) or Aph(Cbm), wherein the decapeptide is degarelix of formula I, or a pharmaceutically acceptable salt thereof.