mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor package, comprising: a substrate; a first pad formed on the substrate; a second pad formed on the substrate; a first conductive element formed on the substrate, the first conductive element formed on the substrate being formed physically independent from the first pad; a second conductive element formed between the first pad and the first conductive element, the first conductive element and the second conduct element separated by an insulating layer; a passive surface mount device mounted on the first pad and the second pad, the passive surface mount device comprising a first electrode electrically connected to the first pad via solder and a second electrode electrically connected to the second pad via solder; a first via-plug formed through the substrate and electrically connected to the second pad; a second via-plug formed through the substrate and electrically connected to the first conductive element; a first bond wire; and a molding compound layer encapsulating the substrate, the first pad, the second pad, the first conductive element, the second conductive element, the first bonding wire and the passive surface mount device; characterised in that the first bonding wire is lying across the second conductive element and electrically connecting the first conductive element and the first pad. a substrate; a first pad formed on the substrate; a second pad formed on the substrate; a first conductive element formed on the substrate, the first conductive element formed on the substrate being formed physically independent from the first pad; a second conductive element formed between the first pad and the first conductive element, the first conductive element and the second conduct element separated by an insulating layer; a passive surface mount device mounted on the first pad and the second pad, the passive surface mount device comprising a first electrode electrically connected to the first pad via solder and a second electrode electrically connected to the second pad via solder; a first via-plug formed through the substrate and electrically connected to the second pad; a second via-plug formed through the substrate and electrically connected to the first conductive element; a first bond wire; and a molding compound layer encapsulating the substrate, the first pad, the second pad, the first conductive element, the second conductive element, the first bonding wire and the passive surface mount device; characterised in that the first bonding wire is lying across the second conductive element and electrically connecting the first conductive element and the first pad.
A method for transmitting uplink control information in a wireless communication system supporting carrier aggregation and operating in a time division duplex, TDD, the method comprising: determining the number of per-cell hybrid automatic repeat request acknowledgement, HARQ-ACK, bits for each cell included in a plurality of cells; configuring a HARQ-ACK payload including a plurality of per-cell HARQ-ACK bits; and transmitting the HARQ-ACK payload in a subframe n through a physical uplink shared channel, PUSCH, wherein, when the plurality of cells do not include a cell to which transmission timing according to a specific uplink-downlink, UL-DL, configuration is applied, the number of per-cell HARQ-ACK bits for each cell is determined using a value of min(W, Mc), wherein, when the plurality of cells include one or more cells to which transmission timing according to the specific UL-DL configuration is applied, the number of per-cell HARQ-ACK bits for each cell is determined using a value of min(W+4┌(U max -W)/4┐, Mc), and wherein W denotes a value indicated by a 2-bit uplink downlink assignment index, UL DAI, field corresponding to the PUSCH, Mc denotes the number of downlink subframes corresponding to the uplink subframe n for each cell, U max denotes a maximum value from among the numbers of downlink signals requiring HARQ-ACK responses per cell, and ┌ ┐ denotes a ceiling function. determining the number of per-cell hybrid automatic repeat request acknowledgement, HARQ-ACK, bits for each cell included in a plurality of cells; configuring a HARQ-ACK payload including a plurality of per-cell HARQ-ACK bits; and transmitting the HARQ-ACK payload in a subframe n through a physical uplink shared channel, PUSCH,
A method of using a nanopore sequencer, the nanopore sequencer comprising: a cis well; a trans well; a nanopore fluidically connecting the cis well and the trans well; and a modified electrolyte in the trans well, wherein the modified electrolyte includes a potassium cation and an associated anion, a sodium cation and the associated anion, or combinations thereof; characterized in that the modified electrolyte further includes a cation complexing agent, the cation complexing agent is selected from the group consisting of a crown ether, a calixarene and valinomycin, wherein the crown ether is selected from 15-crown-5, 18-crown-6, 21-crown-7, benzo-15-crown-5, dibenzo-15-crown-5, benzo-18-crown-6, dibenzo-18-crown-6, benzo-21-crown-7, dibenzo-21-crown-7, dicyclohexano-18-crown-6, dicyclohexano-21-crown-7, azacrown and thiacrown; and wherein the cis well comprises the electrolyte without the cation complexing agent; the method comprising: controlling depletion of a redox reagent of the electrolyte in the nanopore sequencer by applying a voltage bias ranging from about -1 V to about 1 V between the cis well of the nanopore sequencer and the trans well of the nanopore sequencer. the nanopore sequencer comprising: a cis well; a trans well; a nanopore fluidically connecting the cis well and the trans well; and a modified electrolyte in the trans well, wherein the modified electrolyte includes a potassium cation and an associated anion, a sodium cation and the associated anion, or combinations thereof; characterized in that the modified electrolyte further includes a cation complexing agent, the cation complexing agent is selected from the group consisting of a crown ether, a calixarene and valinomycin, wherein the crown ether is selected from 15-crown-5, 18-crown-6, 21-crown-7, benzo-15-crown-5, dibenzo-15-crown-5, benzo-18-crown-6, dibenzo-18-crown-6, benzo-21-crown-7, dibenzo-21-crown-7, dicyclohexano-18-crown-6, dicyclohexano-21-crown-7, azacrown and thiacrown; and wherein the cis well comprises the electrolyte without the cation complexing agent; a cis well; a trans well; a nanopore fluidically connecting the cis well and the trans well; and a modified electrolyte in the trans well, wherein the modified electrolyte includes a potassium cation and an associated anion, a sodium cation and the associated anion, or combinations thereof; characterized in that the modified electrolyte further includes a cation complexing agent, the cation complexing agent is selected from the group consisting of a crown ether, a calixarene and valinomycin, wherein the crown ether is selected from 15-crown-5, 18-crown-6, 21-crown-7, benzo-15-crown-5, dibenzo-15-crown-5, benzo-18-crown-6, dibenzo-18-crown-6, benzo-21-crown-7, dibenzo-21-crown-7, dicyclohexano-18-crown-6, dicyclohexano-21-crown-7, azacrown and thiacrown; and wherein the cis well comprises the electrolyte without the cation complexing agent; the method comprising: controlling depletion of a redox reagent of the electrolyte in the nanopore sequencer by applying a voltage bias ranging from about -1 V to about 1 V between the cis well of the nanopore sequencer and the trans well of the nanopore sequencer.
Stator module for a planar drive system - wherein the stator module has a module upper side extending in a plane and a module underside opposite the module upper side, a stator unit and a cooling unit, - wherein the stator unit has at least one coil conductor which can be energized by a drive current to generate a magnetic field for driving a moving body of the planar drive system, which moving body can be positioned at the module upper side, - wherein the stator unit is arranged at the module upper side, characterized in that - the cooling unit has a housing cover and a housing base, - wherein the housing cover is arranged between the stator unit and the housing base, - wherein the housing cover is at least thermally connected to a stator underside of the stator unit at a cover upper side of the housing cover, - wherein the housing cover is thermally connected to the housing base on a cover underside facing away from the stator unit, - wherein the housing base is arranged at the module underside and has a first fastening portion at the module underside, - wherein the first fastening portion is thermally connectable to a heat sink, - wherein the housing cover is designed to conduct heat (W 2, W 3) from the stator unit to the housing base, - wherein the housing base is designed to conduct the heat (W 2, W 3) from the housing cover to the first fastening portion, at least in part. - wherein the stator module has a module upper side extending in a plane and a module underside opposite the module upper side, a stator unit and a cooling unit, - wherein the stator unit has at least one coil conductor which can be energized by a drive current to generate a magnetic field for driving a moving body of the planar drive system, which moving body can be positioned at the module upper side, - wherein the stator unit is arranged at the module upper side, characterized in that - the cooling unit has a housing cover and a housing base, - wherein the housing cover is arranged between the stator unit and the housing base, - wherein the housing cover is at least thermally connected to a stator underside of the stator unit at a cover upper side of the housing cover, - wherein the housing cover is thermally connected to the housing base on a cover underside facing away from the stator unit, - wherein the housing base is arranged at the module underside and has a first fastening portion at the module underside, - wherein the first fastening portion is thermally connectable to a heat sink, - wherein the housing cover is designed to conduct heat (W 2, W 3) from the stator unit to the housing base, - wherein the housing base is designed to conduct the heat (W 2, W 3) from the housing cover to the first fastening portion, at least in part.
A support device for retracting a turret of a vehicle, the support device comprising: - a base plate on which the turret is fixed, - a moving means for moving the base plate, characterized in that the device comprises: - a rigid body integral with a roof of the vehicle, the body comprising an upper face for supporting the base plate when using the turret, - a rest base integral with the roof of the vehicle, and for causing the base plate to be integral with the vehicle during the logistical transport phases, and in that: - the moving means is able to move the base plate between the rest base and the rigid body, the upper face of the rigid body being at a distance from the roof which is higher than that separating the roof from the base. - a base plate on which the turret is fixed, - a moving means for moving the base plate, characterized in that the device comprises: - a rigid body integral with a roof of the vehicle, the body comprising an upper face for supporting the base plate when using the turret, - a rest base integral with the roof of the vehicle, and for causing the base plate to be integral with the vehicle during the logistical transport phases, and in that: - the moving means is able to move the base plate between the rest base and the rigid body, the upper face of the rigid body being at a distance from the roof which is higher than that separating the roof from the base.
Fastening arrangement for a vehicle, having a vehicle-body-side sheet-metal part and a U-shaped retaining clip which is fastened thereto and which has a basic web having U limbs which connect thereto and from which foot portions are angled at the ends, said foot portions engaging under, and in particular being welded to, the vehicle-body-side sheet-metal part, wherein the sheet-metal part has apertures which are separate from each other at the spacing of the two U limbs of the retaining clip and through which the U limbs are guided with the foot portions thereof, wherein the U limbs and the basic web of the retaining clip span a wire clip plane, and in that the foot portions project from the wire clip plane, characterized in that the foot portions project in an opposing manner, that is to say in opposite directions, with respect to the wire clip plane.
Apparatus for generating a directional function for processing an audio scene, the apparatus comprising: a graphical user interface comprising a plurality of input knobs arranged in different directions with respect to a reference point, wherein a distance of each input knob of the plurality of input knobs from the reference point can be individually adjusted, wherein the distance of an input knob from the reference point determines a value of the directional function in the direction of the input knob; and a directional function determiner implemented to generate the directional function based on the distances of the plurality of input knobs from the reference point, such that a physical quantity can be influenced by the directional function, characterized in that the directional function determiner is implemented to calculate further functional values of the directional function by interpolating functional values obtained based on the distances of the plurality of input knobs, and that the graphical user interface comprises a rotation knob, wherein a rotation of the rotation knob effects an equal change of the directions of all input knobs of the plurality of input knobs. a graphical user interface comprising a plurality of input knobs arranged in different directions with respect to a reference point, wherein a distance of each input knob of the plurality of input knobs from the reference point can be individually adjusted, wherein the distance of an input knob from the reference point determines a value of the directional function in the direction of the input knob; and a directional function determiner implemented to generate the directional function based on the distances of the plurality of input knobs from the reference point, such that a physical quantity can be influenced by the directional function, characterized in that the directional function determiner is implemented to calculate further functional values of the directional function by interpolating functional values obtained based on the distances of the plurality of input knobs, and that the graphical user interface comprises a rotation knob, wherein a rotation of the rotation knob effects an equal change of the directions of all input knobs of the plurality of input knobs.
A system (2000; 3000; 4000; 5000; 6000) for controlling fluid flow through an electron microscope sample holder, the system comprising: a pressure control system that supplies gas; an inlet line for providing the gas from the pressure control system to the sample holder; an outlet line for receiving the gas from the sample holder; and a variable leak valve that meters the gas flow in the outlet line; characterized in that the gas flows from an upstream tank of the pressure control system through the sample holder and variable leak valve to a downstream tank of the pressure control system due to a pressure difference between the upstream tank and the downstream tank; and the flow rate of the gas is calculated through software or firmware controls based on a rate of change in pressure in at least one of the upstream and downstream tank (212, 216). a pressure control system that supplies gas; an inlet line for providing the gas from the pressure control system to the sample holder; an outlet line for receiving the gas from the sample holder; and a variable leak valve that meters the gas flow in the outlet line; characterized in that the gas flows from an upstream tank of the pressure control system through the sample holder and variable leak valve to a downstream tank of the pressure control system due to a pressure difference between the upstream tank and the downstream tank; and the flow rate of the gas is calculated through software or firmware controls based on a rate of change in pressure in at least one of the upstream and downstream tank (212, 216).
Spinal repositioning instrument comprising a first coupling body adapted for direct or indirect coupling to a pedicle screw, and a second coupling body adapted for direct or indirect coupling to another pedicle screw, wherein the spinal repositioning instrument is configured to perform a first movement for vertebral repositioning under which first movement the first and second coupling bodies (10, 20) are moved respectively for changing a distance between the pedicle screws when being coupled to the coupling bodies (10, 20) and to perform a second movement for reduction independent from the first movement, under which second movement the coupling bodies (10, 20) are moved respectively for changing the angle between the longitudinal axes of the pedicle screws when being coupled to the coupling bodies (10, 20), the spinal repositioning instrument comprises a synchronising mechanism or transmission functionally linking the two coupling bodies (10, 20) with each other and being configured such that at least or exclusively the respective movements of the coupling bodies (10, 20) under the second movement are reflectionally symmetric to each other, and an adjustable linkage mechanism is provided connecting the two coupling bodies (10, 20) such that under the first movement the coupling bodies (10, 20) perform a scissor-like pivoting about a first axis provided by the linkage mechanism in a first adjustment state of the linkage mechanism exclusively allowing the pivoting movement and under the second movement the coupling bodies (10, 20) perform a rotation in opposite directions about respective second axes in a second adjustment state of the linkage mechanism allowing a translation movement of the coupling bodies (10, 20) relative to each other wherein the two second axes are relatively fixed to each other under the second movement.
A modular handle assembly for a prosthesis delivery device comprising: a stationary main handle having a proximal end and a distal end; a first handle extending proximally from the main handle and rotationally moveable relative to the main handle, the first handle having a proximal end and a distal end and wherein a rotational interface is located at the distal end; characterised by a second handle extending distally from the main handle and rotationally moveable relative to the main handle, the second handle having a proximal end and a distal end and wherein a rotational interface is located at the proximal end; wherein the proximal end of the main handle comprises a first rotational interface that is configured to engage with a rotational interface at the distal end of the first handle and wherein the distal end of the main handle comprises a second rotational interface that is configured to engage with the rotational interface at the proximal end of the second handle. a stationary main handle having a proximal end and a distal end; a first handle extending proximally from the main handle and rotationally moveable relative to the main handle, the first handle having a proximal end and a distal end and wherein a rotational interface is located at the distal end; characterised by a second handle extending distally from the main handle and rotationally moveable relative to the main handle, the second handle having a proximal end and a distal end and wherein a rotational interface is located at the proximal end; wherein the proximal end of the main handle comprises a first rotational interface that is configured to engage with a rotational interface at the distal end of the first handle and wherein the distal end of the main handle comprises a second rotational interface that is configured to engage with the rotational interface at the proximal end of the second handle.
A screwdriver bit comprising a cross-shaped tip end bit portion in a tapered shape directed to a tip end portion and including a taper of a prescribed angle, so as to be fitted to a bit fitting groove of a screw including a cross-shaped groove provided at a top surface of a screw head portion, characterized in that the tip end bit portion comprises: at a tip end face thereof, a spherically shaped portion having a mirror finished surface; by polishing a cross-shaped bit piece having a converging shape consisting of a taper of a prescribed angle that is directed toward the spherically shaped portion; and a stepped portion forming a face intersecting with a bit axis, which is provided at a boundary portion of the spherically shaped portion and the cross-shaped bit piece. at a tip end face thereof, a spherically shaped portion having a mirror finished surface; by polishing a cross-shaped bit piece having a converging shape consisting of a taper of a prescribed angle that is directed toward the spherically shaped portion; and a stepped portion forming a face intersecting with a bit axis, which is provided at a boundary portion of the spherically shaped portion and the cross-shaped bit piece.
A method of controlling a vehicle brake system comprising: applying a friction brake torque with a friction brake to slow rotation of a vehicle wheel; determining whether a wheel slip condition is present; and applying a secondary brake torque with a secondary brake in proportion to a wheel slip error when a wheel slip condition is present, wherein the secondary brake is a driveline retarder configured to allow different shaft segments of a drive shaft to rotate at different speeds so as to create a secondary brake torque that slows rotation of the vehicle wheel. applying a friction brake torque with a friction brake to slow rotation of a vehicle wheel; determining whether a wheel slip condition is present; and applying a secondary brake torque with a secondary brake in proportion to a wheel slip error when a wheel slip condition is present, wherein the secondary brake is a driveline retarder configured to allow different shaft segments of a drive shaft to rotate at different speeds so as to create a secondary brake torque that slows rotation of the vehicle wheel.
A heavy duty pneumatic tire comprising a tread portion provided with at least one circumferentially and continuously extending main groove, at least one circumferentially and continuously extending sub groove, and a plurality of lateral grooves to form circumferentially repeated pitch elements each of which consists of one lateral groove and a block element arranged between two adjacent lateral grooves, the sub groove comprising a shallow bottom part having a depth (D2a) smaller than that of the main groove, the shallow bottom part of the sub groove provided with a groove bottom sipe extending along the sub groove, and the lateral grooves comprising a shallow bottom part (16, 19, 22) having a depth (D2b, D2c, D2d) smaller than that of the main groove, the shallow bottom part (16, 19, 22) of the lateral groove provided with a groove bottom sipe (17, 20, 23) extending along the lateral groove, characterized in that the lateral grooves have groove widths W2 in a range of from 5% to 15% in relation to a circumferential length L1 of the pitch element, the tread portion comprises a tread rubber having a loss tangent (tanδ) in a range of not more than 0.08.
A portable logging device for sealing of doors of transport vehicles comprising a data insert unit to insert a particular type of the transport vehicles and to insert the executed attachment of a seal to a certain door to record the sealing of the door, and a data unit suitable to store the inserted data, characterized in that the portable logging device further comprises a display unit for displaying the location (L1, L2) of each door of the particular type of the transport vehicles, where the seal has to be attached, and for correlating the location (L1, L2) of the door with the machine-readable code of the identification means of the seal attached to this door, wherein the portable logging device is adapted to send out an activation signal to the seal to activate the seal.