mhurhangee/ep-ind-claims huggingface dataset:
Method for actuating a clutch arrangement of a motor vehicle drivetrain, the clutch arrangement comprising a first friction clutch and a second friction clutch having a common input element, which is connected to a power unit, the first friction clutch comprising a first output element, which is connected to a first drive shaft, and the second friction clutch comprising a second output element, which is connected to a second drive shaft, the drive shafts being connected to a first drive wheel and a second drive wheel respectively of the vehicle, wherein, when different coefficients of friction (μ-low, μ-high) of the road surfaces of the first drive wheel and the second drive wheel are registered, the first friction clutch and the second friction clutch are actuated in such a way that the drive torque of both drive wheels (24, 26) is limited to the drive torque of the drive wheel having the lower coefficient of friction, that can be transmitted to the road surface, and wherein the limitation of the drive torque when different coefficients of friction are registered is performed only if the speed of the vehicle exceeds a threshold value so that unwanted yawing moments about a vertical axis at vehicles speeds above the threshold value are avoided, characterized in that the function of a fully locked differential is established when the speed of the vehicle is smaller than the threshold value.
A light array comprising a plurality of coloured light-emitting diode elements, the wherein the plurality of coloured light-emitting diode elements comprises a plurality of red coloured light-emitting diode elements, a plurality of green coloured light-emitting diode elements, and a plurality of blue coloured light-emitting diode elements; wherein the plurality of coloured light-emitting diode elements comprises a plurality of white coloured light emitting diode elements; wherein the plurality of coloured light-emitting diode elements is dispersed within the array so as to provide a uniform colour output; characterized in that the array is a rectangular array comprising rows and columns and in that the placement of each coloured light-emitting diode element is such that individual coloured light-emitting diode elements are dispersed over the whole surface of the array not following any regular vertical, horizontal or diagonal patterns.
A use of a polyamidoamine polymer having the formula wherein: R1 and R3, which are the same as or different from each other, are chosen from: -H, -CH 3; R2 is a (C1-C6) linear alkylene, or R1, R2 and R3 form, together with the two atoms of nitrogen to which they are bonded, a piperazine ring; R4 is chosen from: -(C1-C6)alkylene-Si(O-(C1-C3)alkyl) 3, -alkylene-OH, -CH 3; n is a whole number comprised between 5 and 15, for coating wood, paper, stone and lithoid construction materials. R1 and R3, which are the same as or different from each other, are chosen from: -H, -CH 3; R2 is a (C1-C6) linear alkylene, or R1, R2 and R3 form, together with the two atoms of nitrogen to which they are bonded, a piperazine ring; R4 is chosen from: -(C1-C6)alkylene-Si(O-(C1-C3)alkyl) 3, -alkylene-OH, -CH 3; n is a whole number comprised between 5 and 15,
An angle sensor having a layered structure in which a plurality of magnetoresistive sensor units (511, 522, 523, 514, 531, 542, 543, 534) are stacked in a film thickness direction with interposed insulation films (41, 42, 43, 44), wherein each sensor unit comprises: a self-pinned type ferromagnetic pinned layer in which a first ferromagnetic film and a second ferromagnetic film are anti-ferromagnetically coupled with an interposed anti-parallel coupling film; a nonmagnetic intermediate layer; and a soft magnetic free layer, wherein the first ferromagnetic film and the second ferromagnetic film have substantially the same Curie temperature and the difference in magnetization amount therebetween is substantially zero, wherein induced anisotropy of the soft magnetic free layers of the sensor units is made isotropic, magnetizations of the ferromagnetic pinned layers of the sensor units belonging to different layers are respectively oriented in different directions, and a bridge circuit that outputs a signal corresponding to an external magnetic field is built by the plurality of sensor units.
A glazing unit having improved vibro-acoustic damping properties comprising at least one glass sheet and at least one vibro-acoustic damping strip, which is fastened onto at least one of the faces of the glass sheet and which comprises at least one element made of damping material having a loss factor of at least 0.4, characterized in that the strip is joined to no other device on the opposite side of the glass sheet and in that the strip also includes at least one weighting element that has a linear mass of greater than 0.05 kg/m and is fastened onto the element made of damping material, the linear mass corresponding to the ratio of the mass of the weighting element to the length of said weighting element along its greatest extent in contact with the damping element, the element made of damping material being inserted between the glass sheet and the weighting element and having a Young's modulus of less than 200 MPa at 20°C for frequencies below 5000 Hz, the weighting element being joined only to the face of the element made of damping material which is on the opposite side from that in contact with the face of the glass sheet.
Method for drying a piece of textile that has a semipermeable membrane, wherein said piece of textile is impinged upon by an air flow to evacuate moisture, a partial water vapour pressure in the air flow being varied by corresponding oscillating heating of the airflow or by oscillating condensation of moisture out of the air flow, and the air flow impinging upon the piece of textile exhibits an oscillating partial water vapour pressure, wherein the oscillating partial pressure is brought about by an oscillating temperature in the air flow, wherein the oscillating temperature is brought about by heating the air flow in an oscillating fashion, wherein the heating is switched alternately on and off, wherein each off period lasts between 100 and 200 s, in particular between 120 and 180 s, wherein the temperature oscillates with an amplitude of at least 10 kelvin, in particular about 20 kelvin, such that a partial pressure gradient is generated over the membrane, being sufficient to drive water vapour out through said membrane.
Method for controlling a drive motor in a motor vehicle, comprising the steps: - determining driving situation information, which describes a static friction and/or a traction of at least one wheel of the motor vehicle and/or a speed of the motor vehicle, - determining a minimum rotational speed of the drive motor as a function of the driving situation information, and - regulating or controlling the rotational speed of the drive motor as a function of the minimum rotational speed, in particular in such a way that the rotational speed is always greater than the minimum rotational speed, wherein a minimum wheel rotational speed that is dependent on the driving situation information is determined for the wheel or at least one of the wheels of the motor vehicle, the minimum rotational speed being determined as a function of the minimum wheel rotational speed, characterised in that the minimum wheel rotational speed is determined in such a way that the slip of the wheel or the respective wheel at the speed of the motor vehicle is less than the slip at which maximum traction is achieved between the wheel and the ground. - determining driving situation information, which describes a static friction and/or a traction of at least one wheel of the motor vehicle and/or a speed of the motor vehicle, - determining a minimum rotational speed of the drive motor as a function of the driving situation information, and - regulating or controlling the rotational speed of the drive motor as a function of the minimum rotational speed, in particular in such a way that the rotational speed is always greater than the minimum rotational speed,
Method for detecting leaks in packages processed in a production line comprising at least one leak detector having a robot arm with at least one gas detector, wherein the robot arm further comprises a marker installed to be operated for marking a location of a leak on a leaky package; and wherein the marker is preferably arranged at the utmost tip of the robot arm, so that it can be moved flexibly within a large space, the method comprising at least the following steps: a) moving the gas detector along a detection path covering at least a part of at least one of the packages gathering data, and b) deciding if a package is deemed to be leaky based on the data gathered by the gas detector. a) moving the gas detector along a detection path covering at least a part of at least one of the packages gathering data, and b) deciding if a package is deemed to be leaky based on the data gathered by the gas detector.
A system for providing electrostimulation to a patient, the system comprising: an ambulatory medical device, AMD, including a virtual machine, VM, and an electrostimulator; and at least one computer-readable storage medium including instructions executable on an external system communicatively coupled to the AMD, the external system including a user interface, a compiler, and a telemetry circuit; wherein the instructions, when executed by the external system: enable the user interface to receive a waveform function in a form of computer code text or a graph, the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; wherein the VM of the AMD is configured to execute the VM instructions to generate respective one or more modulation waveform datasets corresponding to the one or more modulation programs, and the electrostimulator is configured to generate electrostimulation therapy according to the one or more modulation waveform datasets. an ambulatory medical device, AMD, including a virtual machine, VM, and an electrostimulator; and at least one computer-readable storage medium including instructions executable on an external system communicatively coupled to the AMD, the external system including a user interface, a compiler, and a telemetry circuit; wherein the instructions, when executed by the external system: enable the user interface to receive a waveform function in a form of computer code text or a graph, the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; enable the user interface to receive a waveform function in a form of computer code text or a graph, the waveform function defining one or more modulation programs characterized by respective one or more modulation parameters, and a user input of values for the one or more modulation parameters of the one or more modulation programs; cause the compiler to translate the waveform function into VM instructions; and cause the telemetry circuit to transmit the VM instructions to the AMD; wherein the VM of the AMD is configured to execute the VM instructions to generate respective one or more modulation waveform datasets corresponding to the one or more modulation programs, and the electrostimulator is configured to generate electrostimulation therapy according to the one or more modulation waveform datasets.
A heat exchanger, comprising: a plurality of heat exchanger plates in a stacked arrangement; at least two counterflow sections positioned adjacent each other, the counterflow sections comprising an intermediate section of each heat exchanger plate, the heat exchanger plates configured to transfer heat between a first fluid and a second fluid flowing in opposite directions from each other through a respective heat exchanger plate; at least one tent section on each end of each counterflow section, the tent sections configured to angle the flow direction of the first and second fluids in the tent sections relative to the flow direction in the counterflow sections; and at least two inlet ports (132a, 132b) configured to allow the first fluid to enter the heat exchanger and at least two outlet ports (134a, 134b) configured to allow the first fluid to exit the heat exchanger, each inlet port (132a, 132b) and outlet port (134a, 134b) positioned through a respective tent section; characterized in that the inlet ports (132a, 132b) of the first fluid are separated by a wall and wherein the outlet ports (134a, 134b) of the first fluid are separated by a wall. a plurality of heat exchanger plates in a stacked arrangement; at least two counterflow sections positioned adjacent each other, the counterflow sections comprising an intermediate section of each heat exchanger plate, the heat exchanger plates configured to transfer heat between a first fluid and a second fluid flowing in opposite directions from each other through a respective heat exchanger plate; at least one tent section on each end of each counterflow section, the tent sections configured to angle the flow direction of the first and second fluids in the tent sections relative to the flow direction in the counterflow sections; and at least two inlet ports (132a, 132b) configured to allow the first fluid to enter the heat exchanger and at least two outlet ports (134a, 134b) configured to allow the first fluid to exit the heat exchanger, each inlet port (132a, 132b) and outlet port (134a, 134b) positioned through a respective tent section; characterized in that the inlet ports (132a, 132b) of the first fluid are separated by a wall and wherein the outlet ports (134a, 134b) of the first fluid are separated by a wall.
A method implemented by a wireless transmit/receive unit, WTRU, the method comprising: the following steps: receiving an allocation of a non-contention based, NCB, uplink control channel from an evolved Node B, eNB, wherein the allocation comprises a first configuration for transmitting scheduling requests over the NCB uplink control channel, and the first configuration indicates a first periodicity assigned to the WTRU for transmitting scheduling requests on the NCB uplink control channel, wherein a second configuration, sent to the WTRU, indicates a second periodicity assigned to the WTRU for reporting channel quality measurements over the NCB uplink control channel; transmitting the channel quality measurements over the NCB uplink control channel in accordance with the second configuration; transmitting a transmission burst over the NCB uplink control channel in accordance with the first configuration, wherein presence of the transmission burst on the NCB uplink control channel in accordance with the first configuration is indicative of a request for uplink transmission resources by the WTRU; monitoring a downlink control channel; detecting a transmission on the downlink control channel that is intended for the WTRU based on a WTRU identifier indicated in the transmission on the downlink control channel, wherein the transmission on the downlink control channel comprises an allocation of an uplink shared channel; and transmitting data over the uplink shared channel in accordance with the allocation of the uplink shared channel. receiving an allocation of a non-contention based, NCB, uplink control channel from an evolved Node B, eNB, wherein the allocation comprises a first configuration for transmitting scheduling requests over the NCB uplink control channel, and the first configuration indicates a first periodicity assigned to the WTRU for transmitting scheduling requests on the NCB uplink control channel, wherein a second configuration, sent to the WTRU, indicates a second periodicity assigned to the WTRU for reporting channel quality measurements over the NCB uplink control channel; transmitting the channel quality measurements over the NCB uplink control channel in accordance with the second configuration; transmitting a transmission burst over the NCB uplink control channel in accordance with the first configuration, wherein presence of the transmission burst on the NCB uplink control channel in accordance with the first configuration is indicative of a request for uplink transmission resources by the WTRU; monitoring a downlink control channel; detecting a transmission on the downlink control channel that is intended for the WTRU based on a WTRU identifier indicated in the transmission on the downlink control channel, wherein the transmission on the downlink control channel comprises an allocation of an uplink shared channel; and transmitting data over the uplink shared channel in accordance with the allocation of the uplink shared channel.
Anti-climber device for a rail vehicle, comprising a baffle plate with a plurality of projecting mouldings, wherein the extension of the mouldings across the surface of the baffle plate follows a traverse line with a repeated sequence of rising and falling sections, characterised in that in the installation position of the anti-climber device, the course of the mouldings is formed as a travers line with a repetitive sequence of rising and falling sections with respect to the horizontal.
A door handle unit for a lock in a vehicle with a door handle which, for opening a door, hatch or suchlike by a user, is movably mounted in a bearing frame, wherein the door handle has at least one resting position (Ia) and one operating position (Ib), a mechanical coupling unit, by which a movement of the door handle from the resting position (Ia) into the operating position (Ib) is able to be transferred to the lock, a crash block, which has at least one normal position (IIa) and one blocking position (IIb), wherein the crash block in its normal position (IIa) permits a movement of the door handle and/or of the coupling unit for actuation of the lock, and in the blocking position (IIb), which is present in the case of or after the action of an acceleration force, in particular in the case of an accident, blocks a movement of the door handle and/or of the coupling unit such that an actuation of the lock is prevented, characterized in that the crash block in its blocking position (IIb) is able to be transferred into the normal position (IIa) by a movement of the door handle and/or of the coupling unit, wherein the crash block has a first blocking position in the case of the action of the acceleration force, and a second blocking position, in which the crash block is held stable, and wherein the crash block is mechanically stressed by a spring, in order to transfer the crash block from the first blocking position into the second blocking position.
An occupancy sensing device, comprising: an occupancy sensing component; characterized in that the occupancy sensing device further comprises a lighting control interface (104, 204) configured to connect the occupancy sensing device to a digital addressable lighting interface, DALI, bus of a building; a building management system, BMS, interface (102, 202) configured to connect the occupancy sensing device to a BMS bus of the building, such that when the BMS bus and the DALI bus are connected to the occupancy sensing device it allows the direct exchange of data between the BMS bus and the DALI bus; and a lighting control application configured to translate data communicated between the BMS bus and the DALI bus when connected to the occupancy sensing device. an occupancy sensing component; characterized in that the occupancy sensing device further comprises a lighting control interface (104, 204) configured to connect the occupancy sensing device to a digital addressable lighting interface, DALI, bus of a building; a building management system, BMS, interface (102, 202) configured to connect the occupancy sensing device to a BMS bus of the building, such that when the BMS bus and the DALI bus are connected to the occupancy sensing device it allows the direct exchange of data between the BMS bus and the DALI bus; and a lighting control application configured to translate data communicated between the BMS bus and the DALI bus when connected to the occupancy sensing device.
An optical subassembly for the conversion of data between an optical and electrical format, comprising: a first side (S100a) to transmit and receive the data in the optical format; a second side (S100b) to transmit and receive the data in the electrical format; an optoelectronic chip to change a data format of the data between the optical and electrical format, wherein the optoelectronic chip comprises optical waveguides; and a spacer substrate comprising metallized through-glass-vias, characterized in that the optoelectronic chip is mounted to the spacer substrate such that a side face of the optoelectronic chip configured to face to an optical adaptor projects beyond the spacer substrate. a first side (S100a) to transmit and receive the data in the optical format; a second side (S100b) to transmit and receive the data in the electrical format; an optoelectronic chip to change a data format of the data between the optical and electrical format, wherein the optoelectronic chip comprises optical waveguides; and a spacer substrate comprising metallized through-glass-vias, characterized in that the optoelectronic chip is mounted to the spacer substrate such that a side face of the optoelectronic chip configured to face to an optical adaptor projects beyond the spacer substrate.
A method for forming a medical device comprising the steps of: a) providing a rod or tube of a metal alloy; b) annealing said rod or tube during a shaping process to form the shape of the metal alloy; and, c) swaging at least a portion of said metal alloy such that a surface of said metal alloy has a hardness that is greater than a core of said metal alloy, said step of swaging forming one or more compounds on an outer surface of said metal alloy, said one or more compounds including a compound selected from the group consisting of ReB 2, ReN 2, and ReN 3, wherein ions of boron and/or nitrogen are allowed to impinge upon rhenium atoms in the MoRe alloy so as to form the ReB 2, ReN 2 and/or ReN 3, wherein said metal alloy includes at least 90 weight percent rhenium and molybdenum; wherein said metal alloy includes 41-49 weight percent rhenium, 51-59 weight percent molybdenum, and optionally up to 1 weight percent additional metal, said additional metal including a metal selected from the group consisting of titanium, yttrium, zirconium, or mixtures thereof. a) providing a rod or tube of a metal alloy; b) annealing said rod or tube during a shaping process to form the shape of the metal alloy; and, c) swaging at least a portion of said metal alloy such that a surface of said metal alloy has a hardness that is greater than a core of said metal alloy, said step of swaging forming one or more compounds on an outer surface of said metal alloy, said one or more compounds including a compound selected from the group consisting of ReB 2, ReN 2, and ReN 3, wherein ions of boron and/or nitrogen are allowed to impinge upon rhenium atoms in the MoRe alloy so as to form the ReB 2, ReN 2 and/or ReN 3,