mhurhangee/ep-ind-claims huggingface dataset:
Wound stator of a rotating electrical machine comprising a body provided with notches delimited by teeth distributed over its circumference, and a winding, said winding being formed from a winding ply comprising phase coils (E1-E6) each composed of a single wire, each of the phase coils comprising segment structures corresponding to portions of said single wire intended to be inserted into said notches and loop structures corresponding to portions of said single wire linking together the segment structures, said winding ply having a length substantially equal to K stator circumferences, being inserted into the notches of said body of the stator and forming a roll having K layers of winding ply, K being an integer number greater than or equal to 2, preferably equal to 2 or 3 or 4, characterized in that segment structures of two conductors (37a, 37b) obtained from one folded wire forming a same phase coil (E1-E6) are positioned alternately in an inner layer and an outer layer of conductors along a circumference of the stator.
A method for mounting a cable lug on a component fixedly attached in a motor vehicle, wherein - the cable lug is connected electrically conductively to the end of the electrical line, - the connected cable lug is inserted into a receiving element consisting of insulating material and is clamped in the latter, - the unit consisting of the receiving element and the cable lug is fixed to a fastening element also consisting of insulting material, which is fixedly attached to the component, wherein the receiving element and the fastening element are connected with one another by a latching mechanism (8, 9), wherein the cable lug, the receiving element and the fastening element in each case have a central bore (2a, 4a, 7a, 10a), through which the component with the receiving element and the cable lug can be placed on a rod-shaped grounding point in the motor vehicle, and wherein the receiving element has a metallic insert, in which the central bore is located, and - the component with the unit fixed to said component consisting of the receiving element and the cable lug is fixed to a fixed rod-shaped grounding point in the motor vehicle, so that the cable lug is connected electrically conductively to the grounding point in the mounted state. - the cable lug is connected electrically conductively to the end of the electrical line, - the connected cable lug is inserted into a receiving element consisting of insulating material and is clamped in the latter, - the unit consisting of the receiving element and the cable lug is fixed to a fastening element also consisting of insulting material, which is fixedly attached to the component, wherein the receiving element and the fastening element are connected with one another by a latching mechanism (8, 9), wherein the cable lug, the receiving element and the fastening element in each case have a central bore (2a, 4a, 7a, 10a), through which the component with the receiving element and the cable lug can be placed on a rod-shaped grounding point in the motor vehicle, and wherein the receiving element has a metallic insert, in which the central bore is located, and - the component with the unit fixed to said component consisting of the receiving element and the cable lug is fixed to a fixed rod-shaped grounding point in the motor vehicle, so that the cable lug is connected electrically conductively to the grounding point in the mounted state.
A high-voltage electrostatic generator comprising an assembly of concentric electrically conductive half-shells separated by an equatorial gap, essentially with cylindrical symmetry about an axis (A-A), characterised in that, adjacent to the equatorial gap, edge regions of at least a selected subset of the half-shells are shaped, such that edge regions of radially outer half-shells (106, 116) of the subset flare radially away from the axis, while edge regions of radially inner half-shells (101, 111) of the subset flare radially inwards, such that the flared edge regions are substantially aligned parallel to lines of electrostatic equipotential in the vicinity of those edge regions thereby to minimise electrostatic stress in the vicinity of the or each flared edge region.
An active clamped transistor circuit comprising: a transistor having a control node to control the conduction state of a controlled current path between a first output node and a second output node, wherein in case of a voltage between the first and the second output nodes (112, 114) exceeding a threshold voltage, the transistor is turned on by means of a feedback path coupling the first output node to the control node such that current is allowed to flow across the controlled current path of the transistor to prevent excessive voltages between the first and the second output nodes (112, 114), the feedback path comprising a serial connection of: (i) at least one Zener diode (Z1, Zn) and/or at least one unidirectional transient voltage suppressor diode, connected in blocking direction, and (ii) at least one rectifier diode connected in flow direction, all directions with respect to the direction of current from the first output node to the control node, characterized by a capacitor connected parallel to the at least one rectifier diode. a transistor having a control node to control the conduction state of a controlled current path between a first output node and a second output node, wherein in case of a voltage between the first and the second output nodes (112, 114) exceeding a threshold voltage, the transistor is turned on by means of a feedback path coupling the first output node to the control node such that current is allowed to flow across the controlled current path of the transistor to prevent excessive voltages between the first and the second output nodes (112, 114), the feedback path comprising a serial connection of: (i) at least one Zener diode (Z1, Zn) and/or at least one unidirectional transient voltage suppressor diode, connected in blocking direction, and (ii) at least one rectifier diode connected in flow direction, all directions with respect to the direction of current from the first output node to the control node, characterized by a capacitor connected parallel to the at least one rectifier diode.
A method of wireless communications performed by a user equipment "UE", comprising: receiving cell acquisition information associated with an enhanced multicast broadcast service "eMBMS" standalone cell, wherein the cell acquisition information is received in non-multicast broadcast single frequency network "non-MBSFN" subframes of the eMBMS standalone cell based on subcarrier spacing; detecting a UE avoidance scheme based on a characteristic associated with the cell acquisition information; and performing cell acquisition with the eMBMS standalone cell based on the characteristic, wherein the UE avoidance scheme is configured to cause a legacy UE to skip performing the cell acquisition of the eMBMS standalone cell, based on non-recognition of the characteristic by the legacy UE. receiving cell acquisition information associated with an enhanced multicast broadcast service "eMBMS" standalone cell, wherein the cell acquisition information is received in non-multicast broadcast single frequency network "non-MBSFN" subframes of the eMBMS standalone cell based on subcarrier spacing; detecting a UE avoidance scheme based on a characteristic associated with the cell acquisition information; and performing cell acquisition with the eMBMS standalone cell based on the characteristic, wherein the UE avoidance scheme is configured to cause a legacy UE to skip performing the cell acquisition of the eMBMS standalone cell, based on non-recognition of the characteristic by the legacy UE.
Full body harness, comprising a chest strap, an abdomen strap, a runner adapted to run in a rail, a ring, which is coupled with the runner, a damping unit, having a first end, a middle portion and a second end, wherein the damping unit extends between the chest strap and the abdomen strap, wherein the first end of the damping unit is coupled to the chest strap, wherein the second end of the damping unit is coupled to the abdomen strap, wherein the damping unit is adapted in the event of a fall to limit the maximum loading on the wearer of the harness, wherein the ring is coupled to the damping unit in the region of the middle portion wherein the damping unit is adapted to at least partially tear apart in an event of a fall, wherein the damping unit comprises a plurality of layers which are sawn together and which are configured to at least partially tear apart in the event of a fall. a chest strap, an abdomen strap, a runner adapted to run in a rail, a ring, which is coupled with the runner, a damping unit, having a first end, a middle portion and a second end, wherein the damping unit extends between the chest strap and the abdomen strap, wherein the first end of the damping unit is coupled to the chest strap, wherein the second end of the damping unit is coupled to the abdomen strap, wherein the damping unit is adapted in the event of a fall to limit the maximum loading on the wearer of the harness, wherein the ring is coupled to the damping unit in the region of the middle portion wherein the damping unit is adapted to at least partially tear apart in an event of a fall, wherein the damping unit comprises a plurality of layers which are sawn together and which are configured to at least partially tear apart in the event of a fall.
A method for training a video encoder/decoder system, the method comprising: a) generating at least two sets of video encoding parameters wherein the at least two sets of video encoding parameters are valid; b) masking a set of the at least two sets of encoding parameters with invalid values to generate an invalid set of video encoding parameters; c) providing the at least two sets of video encoding parameters to one or more neural networks; d) training the one or more neural networks to predict valid values corresponding to values of the invalid set using an iterative training algorithm; e) determining which encoding parameters need to be encoded based on analysis of a prediction error of the one or more neural networks; f) dropping the encoding parameters from the encoded data which are determined to be accurately predicted by the one or more neural networks; g) encoding a new video stream without the dropped encoding parameters. a) generating at least two sets of video encoding parameters wherein the at least two sets of video encoding parameters are valid; b) masking a set of the at least two sets of encoding parameters with invalid values to generate an invalid set of video encoding parameters; c) providing the at least two sets of video encoding parameters to one or more neural networks; d) training the one or more neural networks to predict valid values corresponding to values of the invalid set using an iterative training algorithm; e) determining which encoding parameters need to be encoded based on analysis of a prediction error of the one or more neural networks; f) dropping the encoding parameters from the encoded data which are determined to be accurately predicted by the one or more neural networks; g) encoding a new video stream without the dropped encoding parameters.
A secondary battery cell transfer apparatus for a process of folding a secondary battery cell, the secondary battery cell transfer apparatus comprising: multiple stations disposed at an equal interval and sequentially disposed in a straight process direction so as to perform a process of folding a sealing region of a secondary battery cell; tables provided in the multiple stations, respectively, and configured to vacuum-grip and support the secondary battery cell from below the secondary battery cell; transfer bars provided in the multiple stations, respectively, and configured to vacuum-grip the secondary battery cell from below the secondary battery cell and transfer the secondary battery cell between the first station and the second station arranged continuously in the process direction, the transfer bar being configured to vacuum-grip the secondary battery cell, which is supported by the table in the first station, from below the secondary battery cell, move the secondary battery cell upward, and then move the secondary battery cell to the second station straight, and the transfer bar being configured to move downward, so that the secondary battery cell is seated on the table of the second station, and then return to a position of the first station; vacuum gripping units provided in the table and the transfer bar, respectively, and configured to selectively apply vacuum gripping force to the secondary battery cell; a lifting unit configured to operate a lifting operation of the transfer bar; and a straight transfer drive unit configured to operate a straight reciprocating motion of the transfer bar. multiple stations disposed at an equal interval and sequentially disposed in a straight process direction so as to perform a process of folding a sealing region of a secondary battery cell; tables provided in the multiple stations, respectively, and configured to vacuum-grip and support the secondary battery cell from below the secondary battery cell; transfer bars provided in the multiple stations, respectively, and configured to vacuum-grip the secondary battery cell from below the secondary battery cell and transfer the secondary battery cell between the first station and the second station arranged continuously in the process direction, the transfer bar being configured to vacuum-grip the secondary battery cell, which is supported by the table in the first station, from below the secondary battery cell, move the secondary battery cell upward, and then move the secondary battery cell to the second station straight, and the transfer bar being configured to move downward, so that the secondary battery cell is seated on the table of the second station, and then return to a position of the first station; vacuum gripping units provided in the table and the transfer bar, respectively, and configured to selectively apply vacuum gripping force to the secondary battery cell; a lifting unit configured to operate a lifting operation of the transfer bar; and a straight transfer drive unit configured to operate a straight reciprocating motion of the transfer bar.
Bicycle with controlled active-passive vibration absorption system, wherein said vibration absorption system comprises: - at least one vibration damper based on electrorheological/magnetorheological fluids, consisting of a damper cartridge, which is designed as a single-tube damper with piston and piston rod slidably mounted in a cylinder housing, and in which an electrorbeological/magnetorheological valve is integrally provided, - a system control loop receiving sensor signals and transmitting control signals to an electrical high-voltage power unit, whereby the high-voltage power unit provides the necessary control energy for the electrorheological /magnetorheological valve in the damper cartridge, and - a supply unit in which electrical energy for operating the vibration absorption system is stored, and wherein said at least one vibration damper is integrated in the front wheel fork characterized in that at least one further, identically designed vibration damper is provided between the rear wheel fork and the frame member, the electrorheological / magnetorheological valve has a controllable flow channel to which an electrical / magnetic field can be applied, designed as a helical flow channel and located between the outer surface of the piston and the inner cylinder wall surface, signals are supplied to the system control loop, which serve as a measure of the electrical energy stored in the supply unit, both the damper cartridge in the front wheel fork and the damper cartridge between the rear wheel fork and the frame member have an energy recovery unit in the form of a moving-coil arrangement, each of these forming an integral unit with the damper cartridge, energy converted by means of the energy recovery unit from the parasitic vibrations occurring in the longitudinal direction is supplied to the supply unit, and the supply unit has a battery. - at least one vibration damper based on electrorheological/magnetorheological fluids, consisting of a damper cartridge, which is designed as a single-tube damper with piston and piston rod slidably mounted in a cylinder housing, and in which an electrorbeological/magnetorheological valve is integrally provided, - a system control loop receiving sensor signals and transmitting control signals to an electrical high-voltage power unit, whereby the high-voltage power unit provides the necessary control energy for the electrorheological /magnetorheological valve in the damper cartridge, and - a supply unit in which electrical energy for operating the vibration absorption system is stored,
A protected anti-neoplastic agent of the formula Hyp-N, wherein N is an anti-neoplastic agent and a protectable hydroxyl group of the anti-neoplastic is substituted with Hyp; Hyp is a moiety having the formula: wherein R 2 is hydrogen; R 3 is hydrogen or C 1 -C 6 alkyl; R 1 is C 1 -C 6 alkyl or C 1 -C 6 alkoxy, optionally substituted with one or more heteroatom-containing groups; and R 4 is hydrogen, C 1 -C 6 alkyl, or C 1 -C 6 alkoxy, optionally substituted with one or more heteroatom-containing groups. R 2 is hydrogen; R 3 is hydrogen or C 1 -C 6 alkyl; R 1 is C 1 -C 6 alkyl or C 1 -C 6 alkoxy, optionally substituted with one or more heteroatom-containing groups; and R 4 is hydrogen, C 1 -C 6 alkyl, or C 1 -C 6 alkoxy, optionally substituted with one or more heteroatom-containing groups.
A method of making a fabric-creped absorbent cellulosic sheet, the method comprising: compactively dewatering a papermaking furnish to form a nascent web having an apparently random distribution of papermaking fiber orientation; applying the dewatered web having the apparently random distribution of papermaking fiber orientation to a translating transfer surface that is moving at a transfer surface speed; fabric-creping the web from the transfer surface at a consistency of from about 30% to about 60% utilizing a patterned creping fabric, the fabric-creping step occurring under pressure in a fabric creping nip defined between the transfer surface and the creping fabric, wherein the creping fabric is traveling at a fabric speed that is slower than the transfer surface speed; applying the web to a Yankee dryer; creping the web from the Yankee dryer; and winding the web on a reel, wherein the pattern of the creping fabric, in particular the topography of a creping surface of the creping fabric, nip parameters, velocity delta, and web consistency and web composition are selected such that: (a) the web is creped from the transfer surface and redistributed on the creping fabric to form a web with a local basis weight variation, the web including at least (i) a plurality of fiber-enriched regions of a relatively high local basis weight, and (ii) a plurality of elongated regions having a relatively low local basis weight and being generally oriented along the machine direction of the sheet; and (b) the method exhibits a Caliper Gain/% Reel Crepe ratio of at least 1.5. compactively dewatering a papermaking furnish to form a nascent web having an apparently random distribution of papermaking fiber orientation; applying the dewatered web having the apparently random distribution of papermaking fiber orientation to a translating transfer surface that is moving at a transfer surface speed; fabric-creping the web from the transfer surface at a consistency of from about 30% to about 60% utilizing a patterned creping fabric, the fabric-creping step occurring under pressure in a fabric creping nip defined between the transfer surface and the creping fabric, wherein the creping fabric is traveling at a fabric speed that is slower than the transfer surface speed; applying the web to a Yankee dryer; creping the web from the Yankee dryer; and winding the web on a reel, (a) the web is creped from the transfer surface and redistributed on the creping fabric to form a web with a local basis weight variation, the web including at least (i) a plurality of fiber-enriched regions of a relatively high local basis weight, and (ii) a plurality of elongated regions having a relatively low local basis weight and being generally oriented along the machine direction of the sheet; and (b) the method exhibits a Caliper Gain/% Reel Crepe ratio of at least 1.5.
Crossmember produced from a hardenable steel by hot working and press hardening, wherein after the press hardening the crossmember comprises at least two regions of different strengths, characterised in that a region of a first type has a substantially bainitic structure with less than 30% of further structure constituents and a region of a second type has a substantially martensitic structure with less than 30% of further structure constituents, wherein a transition region between the region of the first type and the region of the second type is smaller than 80 mm and the hardenable steel is a micro-alloyed heat-treatable steel.
Swath pickup for a self-propelled harvesting machine, with a frame to which a pickup comprising conveying tines, a transverse conveyor, a holding-down device supported on supporting arms and two supporting wheel assemblies are attached, wherein the supporting wheel assemblies each comprise a mount and a supporting wheel, which are movable between an outwardly pivoted field-working position and an inwardly pivoted road-driving position, characterized in that a first warning panel which extends vertically and transversely with respect to the forwards direction of the swath pickup in the road-driving position and a second warning panel extending vertically and along the forwards direction of the swath pickup in the road-driving position are fastened to each of the mounts, said warning panels moving together with the mount and the supporting wheel between the field-working position and the road-driving position, and in that a third warning panel extends between the supporting arms.
A method of signaling a user to add additional sample to a sensor strip, comprising: determining if the sensor strip is under-filled by determining a decay constant or a decay rate from currents recorded during at least two excitations of an input signal including at least 3 duty cycles within 180 seconds; and signaling the user to add additional sample to the sensor strip if the strip is under-filled. determining if the sensor strip is under-filled by determining a decay constant or a decay rate from currents recorded during at least two excitations of an input signal including at least 3 duty cycles within 180 seconds; and signaling the user to add additional sample to the sensor strip if the strip is under-filled.
A separator for an electric device, comprising: a porous substrate layer; and first and second ceramic layers (5a, 5b), wherein the first ceramic layer and the second ceramic layer are respectively formed on an upper surface and a lower surface of the porous substrate layer and each containing ceramic particles (6a, 6b) and a binder, wherein a specific surface area of the first ceramic layer is smaller than a specific surface area of the second ceramic layer, and the first ceramic layer is located towards a negative electrode of an electric device. a porous substrate layer; and first and second ceramic layers (5a, 5b), wherein the first ceramic layer and the second ceramic layer are respectively formed on an upper surface and a lower surface of the porous substrate layer and each containing ceramic particles (6a, 6b) and a binder, wherein a specific surface area of the first ceramic layer is smaller than a specific surface area of the second ceramic layer, and the first ceramic layer is located towards a negative electrode of an electric device.