mhurhangee/ep-ind-claims huggingface dataset:
Method for improving the availability of an electromechanical actuator of an electromechanical or electrohydraulic brake system in a motor vehicle, said method comprising electronic motor regulation functioning in a normal operation, i.e. non-restricted operating mode for a field-commutated electric motor actuated by pulse width modulation, wherein in addition to the non-restricted operating mode, further operating modes are defined for the motor regulation, which operating modes function with restricted access to state variables of the electric motor and the actuation electronics thereof, wherein a change in the regulation sequence and/or switching-off of individual functions of the motor regulation depending on the restricted access or the restricted accesses is/are implemented in said further operating modes, characterized in that the fixing of the respective operating mode is dependent on the access to measurement results of the currents in the phases of the electric motor, wherein a distinction is at least drawn between one or more of the classes: current measurement functional, current measurement failed in one phase and current measurement completely failed, wherein, in the case of restricted access to measurement results of a current in a phase of the electric motor, a reconstruction of this value is performed using the measured current values of the other phases.
A method for performing a handover in a content delivery system, said method comprising performing said handover from a first network to a second network at a protocol layer determined based on whether a content stream identification file used by said first network is paired with a content stream identification file used by said second network.
A method of forming a multijunction solar cell comprising an upper subcell, a middle subcell, and a lower or bottom subcell, the method comprising: providing a first substrate for the epitaxial growth of semiconductor material; forming a first solar subcell having a base and an emitter layer on said substrate having a first band gap; forming a second solar subcell having a base and an emitter layer over said first solar subcell having a second band gap smaller than said first band gap; forming a grading interlayer over said second solar subcell, said grading interlayer having a third band gap greater than said second band gap; and forming a third solar subcell having a base and an emitter layer over said grading interlayer having a fourth band gap smaller than said second band gap such that said third subcell is lattice mis-matched with respect to said second subcell, characterised in that at least one of the bases (108, 113, 119) has an exponentially doped profile, and wherein the base in said third solar subcell has an exponential gradation in doping from 1 x 10 16 per cubic centimeter adjacent the base-emitter junction to 1 x 10 18 per cubic centimeter adjacent an adjoining layer. providing a first substrate for the epitaxial growth of semiconductor material; forming a first solar subcell having a base and an emitter layer on said substrate having a first band gap; forming a second solar subcell having a base and an emitter layer over said first solar subcell having a second band gap smaller than said first band gap; forming a grading interlayer over said second solar subcell, said grading interlayer having a third band gap greater than said second band gap; and forming a third solar subcell having a base and an emitter layer over said grading interlayer having a fourth band gap smaller than said second band gap such that said third subcell is lattice mis-matched with respect to said second subcell, characterised in that at least one of the bases (108, 113, 119) has an exponentially doped profile, and wherein the base in said third solar subcell has an exponential gradation in doping from 1 x 10 16 per cubic centimeter adjacent the base-emitter junction to 1 x 10 18 per cubic centimeter adjacent an adjoining layer.
A laminate device comprising magnetic layers and coil patterns alternately laminated, said coil patterns being connected in a lamination direction to form a coil, and pluralities of magnetic gap layers being disposed in contact with said coil patterns, wherein said magnetic gap layers are made of a non-magnetic material or a low-permeability material having a specific permeability of 1-5, characterised in that the respective ones of said magnetic gap layers and said coil patterns which are disposed in contact with each other are not overlapping in the lamination direction.
A vehicle interlock system for preventing a subject under drug influence to operate a vehicle, said unit including at least one sensor, and a unit for analyzing if at least one analyte is present in exhaled breath of a subject based on measurement of said exhaled breath by means of said sensor, characterized by said sensor is a SERS-sensor (10, 20, 30, 90, 1000)_with a SERS-active layer for providing a SERS-emitted signal from said analyte after said SERS-active layer has been exposed to said exhaled breath; a unit for analyzing said analyte is present in said exhaled breath of said subject based on said SERS-emitted signal of said SERS-sensor; and a unit for interlocking said vehicle if said analyte is detected in said exhaled breath.
A paper sheet pickup device comprising: an input portion configured to place a plurality of paper sheets while overlapping each other; a pickup mechanism configured to pick up, one by one, the paper sheets supplied to a pickup position of the input portion; and a pickup assist mechanism configured to be arranged upstream of the pickup mechanism in a pickup direction of the paper sheet, the pickup mechanism including a pickup belt configured to pick up a paper sheet present at the pickup position, an air drawing portion (52, 61) configured to evacuate through the pickup belt and suck the paper sheet to the pickup belt, and a driving motor configured to drive the pickup belt to travel in the pickup direction, the pickup assist mechanism including a suction belt configured to be arranged to be able to travel in the pickup direction, an air drawing portion (60, 62) configured to suck a paper sheet to the suction belt through the suction belt, and a driving motor configured to drive the suction belt at a speed lower than a traveling speed of the pickup belt, and the pickup assist mechanism sucking a paper sheet to the suction belt to feed the paper sheet to the pickup position, and while the pickup mechanism picks up the paper sheet, sucking and holding a next paper sheet, and characterised in that a width of the suction belt is formed to be smaller than a width of the pickup belt. an input portion configured to place a plurality of paper sheets while overlapping each other; a pickup mechanism configured to pick up, one by one, the paper sheets supplied to a pickup position of the input portion; and a pickup assist mechanism configured to be arranged upstream of the pickup mechanism in a pickup direction of the paper sheet, the pickup mechanism including a pickup belt configured to pick up a paper sheet present at the pickup position, an air drawing portion (52, 61) configured to evacuate through the pickup belt and suck the paper sheet to the pickup belt, and a driving motor configured to drive the pickup belt to travel in the pickup direction, the pickup assist mechanism including a suction belt configured to be arranged to be able to travel in the pickup direction, an air drawing portion (60, 62) configured to suck a paper sheet to the suction belt through the suction belt, and a driving motor configured to drive the suction belt at a speed lower than a traveling speed of the pickup belt, and the pickup assist mechanism sucking a paper sheet to the suction belt to feed the paper sheet to the pickup position, and while the pickup mechanism picks up the paper sheet, sucking and holding a next paper sheet, and characterised in that a width of the suction belt is formed to be smaller than a width of the pickup belt.
A method of wireless communication, comprising: determining that a user equipment, UE, has an uplink transmission for a base station; determining whether the base station has entered a channel occupancy time that is shared with the UE; determining configured random access or scheduling request transmission resources based on the channel occupancy time, wherein a density of transmission opportunities is greater outside of the shared channel occupancy time than within the shared channel occupancy time; wherein the density of transmission opportunities refers to a number of configured transmission opportunities per unit of time; performing a listen before talk, LBT, procedure, wherein an energy detection threshold for the listen before talk procedure is lesser outside the channel occupancy time than inside of the channel occupancy time; and transmitting a random access message or a scheduling request on selected configured resources. determining that a user equipment, UE, has an uplink transmission for a base station; determining whether the base station has entered a channel occupancy time that is shared with the UE; determining configured random access or scheduling request transmission resources based on the channel occupancy time, wherein a density of transmission opportunities is greater outside of the shared channel occupancy time than within the shared channel occupancy time; wherein the density of transmission opportunities refers to a number of configured transmission opportunities per unit of time; performing a listen before talk, LBT, procedure, wherein an energy detection threshold for the listen before talk procedure is lesser outside the channel occupancy time than inside of the channel occupancy time; and transmitting a random access message or a scheduling request on selected configured resources.
A boron nitride composition comprising boron nitride powder, the boron nitride powder having its surface treated with at least an over-coating layer comprising at least one of a silane, a siloxane, a carboxylic derivative, and mixtures thereof, the over-coating layer having at least a reactive one functional group, wherein the over-coating layer adheres to at least 2% of the surface of the boron nitride, wherein the boron nitride powder prior to being treated with the over-coating layer, is first treated by either a calcination process or by coating with at least one inorganic or organometallic compound to form a plurality of reactive sites on its surface containing at least a functional group that is reactive to at least one functional group of the over-coating layer, wherein the boron nitride powder prior to being treated with an over-coating layer, is treated by coating the boron nitride powder with at least an organometallic compound or a metallic compound, and heated to a temperature that is high enough for the organometallic compound to break down and for the organometallic or the metallic compound to be converted to at least one of alumina, silica, zirconia, boria, titania, ceria, germania, tantalum oxide, cesia, yttria, magnesia, thoria, and mixtures thereof.
Device for measuring the coagulation parameters of a sample fluid, comprising a boundary layer sensor having a sensor surface which faces said sample fluid, wherein said boundary layer sensor outputs a sensor signal which is obtained as a result of the change in viscosity of said sample fluid, said sensor surface including adhesive regions as well as non-adhesive regions with respect to blood components characterized in that said device is adapted to determine coagulation parameters of said sample fluid from said sensor signal.
A terminal device, comprising: a housing; a processor disposed inside the housing, configured to dynamically adjust a working mode; and a heat dissipation apparatus, comprising a phase change material in contact with the housing, configured to absorb heat of the terminal device; a temperature equalizing unit in contact with the phase change material; and a heat transfer unit that is in contact with the phase change material to conduct heat of the terminal device to the phase change material; characterized in that the heat transfer unit is provided with a groove matching a shape of the temperature equalizing unit; the phase change material has a gap matching the shape of the temperature equalizing unit; and the temperature equalizing unit is disposed in the gap of the phase change material and in the groove of the heat transfer unit to reduce a thickness of the heat dissipation apparatus. a housing; a processor disposed inside the housing, configured to dynamically adjust a working mode; and a heat dissipation apparatus, comprising a phase change material in contact with the housing, configured to absorb heat of the terminal device; a temperature equalizing unit in contact with the phase change material; and a heat transfer unit that is in contact with the phase change material to conduct heat of the terminal device to the phase change material; characterized in that the heat transfer unit is provided with a groove matching a shape of the temperature equalizing unit; the phase change material has a gap matching the shape of the temperature equalizing unit; and the temperature equalizing unit is disposed in the gap of the phase change material and in the groove of the heat transfer unit to reduce a thickness of the heat dissipation apparatus.
A method for a multi-mode portable user terminal, UT, supporting a hard handoff procedure for a call from a wireless local area network, WLAN, to a cellular telephone network, the method comprising: establishing a link between a UT and a serving WLAN; establishing a call via the established WLAN link; monitoring the WLAN link signal strength; simultaneously monitoring a serving cellular network; initiating a hard handoff to the cellular network, responsive to the monitored WLAN link signal strength falling below a minimum threshold by initiating a call handoff to a Cellular Gateway telephone number wherein the Cellular Gateway telephone number is a number assigned to the Cellular Gateway, CGW, and responsive to the call handoff initiation, receiving cellular network resource allocations in a common control channel message; and, continuing the call via the cellular network based on the received resource allocations, wherein establishing the call via the WLAN link includes establishing a Mobile Terminated, MT, call; and wherein continuing the call via the cellular network includes continuing the call as an MT call. establishing a link between a UT and a serving WLAN; establishing a call via the established WLAN link; monitoring the WLAN link signal strength; simultaneously monitoring a serving cellular network; initiating a hard handoff to the cellular network, responsive to the monitored WLAN link signal strength falling below a minimum threshold by initiating a call handoff to a Cellular Gateway telephone number wherein the Cellular Gateway telephone number is a number assigned to the Cellular Gateway, CGW, and responsive to the call handoff initiation, receiving cellular network resource allocations in a common control channel message; and, continuing the call via the cellular network based on the received resource allocations, wherein establishing the call via the WLAN link includes establishing a Mobile Terminated, MT, call; and wherein continuing the call via the cellular network includes continuing the call as an MT call.
An expansion joint to bridge and expansion gap between two adjacent concrete floor slabs, the joint having, in use, an upper and lower portion, wherein the upper portion provides a first and a second dividing member ( 4, 6), the dividing members consisting of two vertically oriented corrugated plates having undulations that fit in one another and wherein the lower portion comprises a first vertically oriented plate, the vertical orientation being perpendicular with respect to the floor surface when in use, the joint further comprising anchoring dowels and characterized in that the first vertically oriented plate of the lower portion is a corrugated plate, the first dividing member and the first lower corrugated plate are substantially in the same lateral plane and are secured to one another through a binding member consisting of a metal sheet; the corrugated plates of ( 4, 6) of the upper portion are out of phase to the corrugated plate of the lower portion; and wherein said anchoring dowels present on one side of both the upper and the lower corrugated plates ( 4, 5, 6) are configured to anchor the expansion joint in the adjacent slabs.
A receiving apparatus comprising: a receiving section configured to receive a signal including downlink control information mapped to a first search space which is configured according to a first pattern or a second search space which is configured according to a second pattern, each pattern defining one or a plurality of PDCCH candidates for each of a plurality of aggregation levels, each PDCCH candidate being composed of a control channel element CCE or a plurality of aggregated CCEs, wherein a first plurality of aggregation levels defined by the first pattern overlap with a second plurality of aggregation levels defined by the second pattern, and the second pattern defines one or a plurality of second PDCCH candidates with at least one of the first plurality of aggregation levels defined by the first pattern and further defines another second PDCCH candidate with an aggregation level higher than any one of the first plurality of aggregation levels, wherein a plurality of first PDCCH candidates corresponding to the first plurality of aggregation levels in the first search space do not overlap with any one of the one or the plurality of second PDCCH candidates and the other second PDCCH candidate in the second search space; and a monitoring section configured to perform blind detection of one or a plurality of first PDCCH candidates included in the first search space or one or a plurality of second PDCCH candidates included in the second search space and to acquire downlink control information for the receiving apparatus. a receiving section configured to receive a signal including downlink control information mapped to a first search space which is configured according to a first pattern or a second search space which is configured according to a second pattern, each pattern defining one or a plurality of PDCCH candidates for each of a plurality of aggregation levels, each PDCCH candidate being composed of a control channel element CCE or a plurality of aggregated CCEs, wherein a first plurality of aggregation levels defined by the first pattern overlap with a second plurality of aggregation levels defined by the second pattern, and the second pattern defines one or a plurality of second PDCCH candidates with at least one of the first plurality of aggregation levels defined by the first pattern and further defines another second PDCCH candidate with an aggregation level higher than any one of the first plurality of aggregation levels, wherein a plurality of first PDCCH candidates corresponding to the first plurality of aggregation levels in the first search space do not overlap with any one of the one or the plurality of second PDCCH candidates and the other second PDCCH candidate in the second search space; and a monitoring section configured to perform blind detection of one or a plurality of first PDCCH candidates included in the first search space or one or a plurality of second PDCCH candidates included in the second search space and to acquire downlink control information for the receiving apparatus.
A dive computer for displaying output data to a user during a dive, wherein the dive computer comprises a user input unit configured for inputting input data to the dive computer by rotating a rotational input device, wherein the user input unit is further configured for inputting further input data to the dive computer by pushing or pulling the rotational input device, wherein the dive computer further comprises a housing at which the rotational input device is rotatably mounted, characterized in that the pushable rotational input device comprises a biasing mechanism configured for applying a predefined biasing force to the rotational input device for biasing the rotational input device into a non-pushed position, wherein the biasing force is predefined so as to prevent undesired triggering of a pushing operation by water pressure at the maximum diving depth, wherein the dive computer further comprises a magnetic coupling configured for coupling the housing to the rotational input device in a waterproof way. wherein the dive computer comprises a user input unit configured for inputting input data to the dive computer by rotating a rotational input device, wherein the user input unit is further configured for inputting further input data to the dive computer by pushing or pulling the rotational input device, wherein the dive computer further comprises a housing at which the rotational input device is rotatably mounted, characterized in that the pushable rotational input device comprises a biasing mechanism configured for applying a predefined biasing force to the rotational input device for biasing the rotational input device into a non-pushed position, wherein the biasing force is predefined so as to prevent undesired triggering of a pushing operation by water pressure at the maximum diving depth, wherein the dive computer further comprises a magnetic coupling configured for coupling the housing to the rotational input device in a waterproof way.
A method for wireless communication at a user equipment, UE, comprising: receiving a first control message on a first bandwidth part from a first transceiver node, wherein the first control message comprises an indication of a second bandwidth part different from the first bandwidth part; receiving a second control message on a third bandwidth part from a second transceiver node, wherein the second control message comprises an indication of a fourth bandwidth part different from the third bandwidth part; determining whether the second bandwidth part is associated with the first transceiver node; and communicating with the first transceiver node on the second bandwidth part based at least in part on the first control message and on a determination that the second bandwidth part is associated with the first transceiver node, determining whether the fourth bandwidth part is associated with the second transceiver node; and communicating with the second transceiver node on the fourth bandwidth part based at least in part on the second control message and on a determination that the fourth bandwidth part is associated with the second transceiver node; or communicating with the second transceiver node on the third bandwidth part based at least in part on a determination that the fourth bandwidth part is not associated with the second transceiver node. receiving a first control message on a first bandwidth part from a first transceiver node, wherein the first control message comprises an indication of a second bandwidth part different from the first bandwidth part; receiving a second control message on a third bandwidth part from a second transceiver node, wherein the second control message comprises an indication of a fourth bandwidth part different from the third bandwidth part; determining whether the second bandwidth part is associated with the first transceiver node; and communicating with the first transceiver node on the second bandwidth part based at least in part on the first control message and on a determination that the second bandwidth part is associated with the first transceiver node, determining whether the fourth bandwidth part is associated with the second transceiver node; and communicating with the second transceiver node on the fourth bandwidth part based at least in part on the second control message and on a determination that the fourth bandwidth part is associated with the second transceiver node; or communicating with the second transceiver node on the third bandwidth part based at least in part on a determination that the fourth bandwidth part is not associated with the second transceiver node.