mhurhangee/ep-ind-claims huggingface dataset:
A battery charging control device having a battery that is adapted to be charged between a battery charge start time and a battery charge end time, and a heater that is adapted to control a temperature of the battery by warming up the battery, that is connected to a charging power system of the battery, and that is adapted to be operated by a power supplied through the charging power system when the battery temperature (Tbat) becomes less than a predetermined temperature (Tbat_start), characterized in that the battery charging control device comprises: a controller that, during operation of the heater, is adapted to change a charge power (P chg) for the battery according to whether or not the present time is between the battery charge start time and the battery charge end time, wherein: when the present time is not between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a charge-state-holding charge power to keep the battery at a predetermined battery charge state (SOC hold) that is smaller than a full charge state (SOC full), and when the present time is between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a fully-chargeable charge power by which the battery is fully charged between the battery charge start time and the battery charge end time. a controller that, during operation of the heater, is adapted to change a charge power (P chg) for the battery according to whether or not the present time is between the battery charge start time and the battery charge end time, wherein: when the present time is not between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a charge-state-holding charge power to keep the battery at a predetermined battery charge state (SOC hold) that is smaller than a full charge state (SOC full), and when the present time is between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a fully-chargeable charge power by which the battery is fully charged between the battery charge start time and the battery charge end time. when the present time is not between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a charge-state-holding charge power to keep the battery at a predetermined battery charge state (SOC hold) that is smaller than a full charge state (SOC full), and when the present time is between the battery charge start time and the battery charge end time, the controller is adapted to set the charge power (P chg) for the battery to a fully-chargeable charge power by which the battery is fully charged between the battery charge start time and the battery charge end time.
Vulcanizable composition comprising (i) at least one optionally fully or partly hydrogenated nitrile rubber containing epoxy groups and comprising repeat units derived from at least one conjugated diene, at least one α,β-unsaturated nitrile and optionally one or more further copolymerizable monomers, but not from a nonconjugated cyclic polyene, and (ii) at least one Lewis and/or Brønsted base, wherein the Lewis base(s) are selected from the group consisting of crown ethers, especially 12-crown-4, cryptands, especially [2.2.2]-cryptand, ammonia, triphenylphosphine, sodium cyanide or potassium cyanide, sodium iodide, bipyridine, phenanthroline, tetrahydrofuran, cyclooctadiene, hydrazine and diethyl ether and the Brønsted base(s) are selected from the group consisting of sulphates, phosphates, carbonates, substituted or unsubstituted amines, substituted or unsubstituted, aromatic or nonaromatic nitrogen-containing organic heterocycles, substituted or unsubstituted urea derivatives, guanidines and derivatives thereof, hydroxides of alkali metals or alkaline earth metals, salts of inorganic or organic sulphonic acids, carboxylic acids and phosphonic acids, the mono- or diesters thereof, and organometallic compounds of the alkali metals lithium, sodium and potassium, as a crosslinker, said vulcanizable composition comprising crosslinkers other than those specified under (ii) only in an amount of less than 2.5 parts by weight, based on 100 parts by weight of the optionally fully or partly hydrogenated nitrile rubber (i) containing epoxy groups. (i) at least one optionally fully or partly hydrogenated nitrile rubber containing epoxy groups and comprising repeat units derived from at least one conjugated diene, at least one α,β-unsaturated nitrile and optionally one or more further copolymerizable monomers, but not from a nonconjugated cyclic polyene, and (ii) at least one Lewis and/or Brønsted base, wherein the Lewis base(s) are selected from the group consisting of crown ethers, especially 12-crown-4, cryptands, especially [2.2.2]-cryptand, ammonia, triphenylphosphine, sodium cyanide or potassium cyanide, sodium iodide, bipyridine, phenanthroline, tetrahydrofuran, cyclooctadiene, hydrazine and diethyl ether and the Brønsted base(s) are selected from the group consisting of sulphates, phosphates, carbonates, substituted or unsubstituted amines, substituted or unsubstituted, aromatic or nonaromatic nitrogen-containing organic heterocycles, substituted or unsubstituted urea derivatives, guanidines and derivatives thereof, hydroxides of alkali metals or alkaline earth metals, salts of inorganic or organic sulphonic acids, carboxylic acids and phosphonic acids, the mono- or diesters thereof, and organometallic compounds of the alkali metals lithium, sodium and potassium, as a crosslinker,
An arrangement of an air-deflecting device on a component of a vehicle, in which at least one air-deflecting element of the air-deflecting device is arranged in the longitudinal direction of the vehicle in front of a wheel of the vehicle and at least in regions protrudes downwards from the component in the vertical direction of the vehicle, wherein the air-deflecting element comprises at least two lateral air-deflecting faces (34, 36) facing away from each other in the transverse direction of the vehicle and extending away from each other in the longitudinal direction of the vehicle from front to back, and also at least one lower air-deflecting face arranged in the transverse direction of the vehicle at least partially between the lateral air-deflecting faces (34, 36) and running from top front to bottom back, wherein the lateral air-deflecting faces (34, 36) run towards one another in the longitudinal direction of the vehicle towards the front to form a point or the air-deflecting element has a straight front edge which runs at least substantially in the transverse direction of the vehicle, characterised in that the air-deflecting device is arranged on the component in the form of a trim panel of an underside of a passenger car and the air-deflecting device comprises the air-deflecting element which is formed as an air-deflecting body and also a wheel spoiler formed as a wheel deflector lip, wherein the air-deflecting element is integrated in the component with the wheel spoiler, and wherein the wheel spoiler is spaced apart towards the back in the longitudinal direction of the vehicle at a pre-settable distance (d) from the air-deflecting element.
Method of MR imaging of an object placed in an examination volume of a MR device, the method comprising the steps of: - subjecting the object to an imaging sequence comprising phase-modulated multi-slice RF pulses for simultaneously exciting two or more spatially separate image slices, - acquiring MR signals, wherein the MR signals are received in parallel via a set of at least two RF coils (11, 12, 13) having different spatial sensitivity profiles within the examination volume, and - reconstructing a MR image for each image slice from the acquired MR signals, wherein MR signal contributions from the different image slices are separated on the basis of the spatial sensitivity profiles of the at least two RF coils (11, 12, 13) and on the basis of the phase modulation scheme of the RF pulses, wherein the phase-modulation scheme of the RF pulses is derived from the spatial sensitivity profiles of the at least two RF coils (11, 12, 13), in that the phase-modulation scheme of the RF pulses is determined such that the conditioning of the inverse problem of the MR image reconstruction is optimized by minimizing a norm of ( S H S) -1 S H, wherein S is the sensitivity matrix of the at least two RF coils (11, 12, 13), taking into account an individual spatial shift in the phase-encoding direction for each image slice induced by the phase-modulation of the RF pulses. - subjecting the object to an imaging sequence comprising phase-modulated multi-slice RF pulses for simultaneously exciting two or more spatially separate image slices, - acquiring MR signals, wherein the MR signals are received in parallel via a set of at least two RF coils (11, 12, 13) having different spatial sensitivity profiles within the examination volume, and - reconstructing a MR image for each image slice from the acquired MR signals, wherein MR signal contributions from the different image slices are separated on the basis of the spatial sensitivity profiles of the at least two RF coils (11, 12, 13) and on the basis of the phase modulation scheme of the RF pulses,
Connector, in particular a push-pull connector, for receiving a plug connected to a cable and for connecting it to a connector socket, having: - a first housing element, which is configured to surround the cable and the plug at least in sections along an insertion direction of the connector into the connector socket; - a sealing element arranged within the first housing element, wherein the sealing element is configured rotationally symmetrical and hollow-cylindrical and is further configured to surround the cable at least in sections along the insertion direction; - a securing means connectable with the first housing element, which is configured to surround the cable at least in sections along the insertion direction and which is insertable at least in sections along the insertion direction into the first housing element, characterized in that a first contacting surface of the sealing element, which substantially faces opposite to the insertion direction, has a first circumferential recess and wherein the securing means has a tapered end present in the insertion direction, wherein by connecting the securing means to the first housing element the tapered end of the securing means can be inserted into the first recess in such a way that an outer side of a first sealing portion of the sealing element contacts the inside of the first housing element and an inner side of the first sealing portion contacts the cable sheathing of the cable. - a first housing element, which is configured to surround the cable and the plug at least in sections along an insertion direction of the connector into the connector socket; - a sealing element arranged within the first housing element, wherein the sealing element is configured rotationally symmetrical and hollow-cylindrical and is further configured to surround the cable at least in sections along the insertion direction; - a securing means connectable with the first housing element, which is configured to surround the cable at least in sections along the insertion direction and which is insertable at least in sections along the insertion direction into the first housing element,
An illumination optical system for an imaging device, comprising: a plurality of light sources that is arranged in an annular shape; and a prism plate that is formed in an annular shape about an optical axis of illumination light from the plurality of light sources, wherein the prism plate includes a prism surface upon which the illumination light emitted from the light sources falls incident and on which prism rows, which contain a plurality of prisms that is arranged in an annular shape along a circumferential direction of the prism plate, are formed, and an emission plane that emits the illumination light, wherein the prism surface is formed on an outer peripheral side outward from a predetermined radius of the prism plate that is centered on the optical axis, characterised in that: the prism plate includes a flat section (18a, 18c) upon which the illumination light from the light sources falls incident and which is formed in an annular shape along the circumferential direction of the prism plate, and the flat section (18a, 18c) is formed on an inner peripheral side inward from the predetermined radius of the prism plate that is centered on the optical axis. a plurality of light sources that is arranged in an annular shape; and a prism plate that is formed in an annular shape about an optical axis of illumination light from the plurality of light sources, wherein the prism plate includes a prism surface upon which the illumination light emitted from the light sources falls incident and on which prism rows, which contain a plurality of prisms that is arranged in an annular shape along a circumferential direction of the prism plate, are formed, and an emission plane that emits the illumination light, wherein the prism surface is formed on an outer peripheral side outward from a predetermined radius of the prism plate that is centered on the optical axis, characterised in that: the prism plate includes a flat section (18a, 18c) upon which the illumination light from the light sources falls incident and which is formed in an annular shape along the circumferential direction of the prism plate, and the flat section (18a, 18c) is formed on an inner peripheral side inward from the predetermined radius of the prism plate that is centered on the optical axis. the prism plate includes a flat section (18a, 18c) upon which the illumination light from the light sources falls incident and which is formed in an annular shape along the circumferential direction of the prism plate, and the flat section (18a, 18c) is formed on an inner peripheral side inward from the predetermined radius of the prism plate that is centered on the optical axis.
A method of wireless communication operable at a user equipment, UE, comprising: searching a carrier for a sync signal, SS, having an SS numerology, wherein the carrier comprises waveforms of a plurality of numerologies including the SS numerology, a first numerology, and a second numerology, wherein the SS numerology differs from the first numerology; detecting the SS and reading configuration information carried on the SS, wherein the configuration information corresponds to one or more channels on the carrier and indicates the numerology of a first channel of the one or more channels, wherein the first channel is a common control channel and wherein the configuration information is included in a master information block, MIB, which is included in a physical broadcast channel, PBCH, carried by the SS; and receiving the first channel of the one or more channels based on the configuration information, the first channel having the first numerology. searching a carrier for a sync signal, SS, having an SS numerology, wherein the carrier comprises waveforms of a plurality of numerologies including the SS numerology, a first numerology, and a second numerology, wherein the SS numerology differs from the first numerology; detecting the SS and reading configuration information carried on the SS, wherein the configuration information corresponds to one or more channels on the carrier and indicates the numerology of a first channel of the one or more channels, wherein the first channel is a common control channel and wherein the configuration information is included in a master information block, MIB, which is included in a physical broadcast channel, PBCH, carried by the SS; and receiving the first channel of the one or more channels based on the configuration information, the first channel having the first numerology.
A high-frequency heating device (1a, 1b, 1c, 1d) comprising: a first generation unit configured to generate microwaves; a surface wave exciter (9, 9a, 9b) including a plurality of metal plates (11, 13) and configured to heat a heating subject (6, 6a, 6b) by propagating the microwaves in a surface wave mode, the plurality of metal plates (11, 13) being periodically arranged at a predetermined interval in a propagation direction of the microwaves; and a first connecting unit disposed in a middle portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves generated by the first generation unit so that the microwaves are supplied to the surface wave exciter (9, 9a, 9b), characterized in that the high-frequency heating device (1a, 1b, 1c, 1d) further comprises: a second connecting unit disposed at one end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves; and a third connecting unit disposed at an other end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves. a first generation unit configured to generate microwaves; a surface wave exciter (9, 9a, 9b) including a plurality of metal plates (11, 13) and configured to heat a heating subject (6, 6a, 6b) by propagating the microwaves in a surface wave mode, the plurality of metal plates (11, 13) being periodically arranged at a predetermined interval in a propagation direction of the microwaves; and a first connecting unit disposed in a middle portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves generated by the first generation unit so that the microwaves are supplied to the surface wave exciter (9, 9a, 9b), characterized in that the high-frequency heating device (1a, 1b, 1c, 1d) further comprises: a second connecting unit disposed at one end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves; and a third connecting unit disposed at an other end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves. a second connecting unit disposed at one end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves; and a third connecting unit disposed at an other end portion of the surface wave exciter (9, 9a, 9b) in the propagation direction of the microwaves.
A resolver decoder circuit comprising: a first filter circuit configured to calculate a first weighted sum of a first digital signal over a pre-determined period of time, wherein the first digital signal comprises first digital samples of a first analog signal from a first secondary winding of a resolver; a second filter circuit configured to calculate a second weighted sum of a second digital signal over the pre-determined period of time, wherein the second digital signal comprises second digital samples of a second analog signal from a second secondary winding of the resolver, wherein the first analog signal and the second analog signal are configured to be induced by a sine wave signal applied to an input winding of the resolver; and a rectifier configured to generate a first output and a second output by adjusting a first sign of the first weighted sum and adjusting a second sign of the second weighted sum, respectively, the circuit characterized in that each of the first filter circuit and the second filter circuit comprises: an input terminal; an output terminal; a tapped delay line, TDL coupled to the input terminal and having taps, wherein each of the taps of the TDL has a respective weight factor; and a plurality of adders configured to generate, at the output terminal, a weighted sum of digital values at the taps of the TDL. a first filter circuit configured to calculate a first weighted sum of a first digital signal over a pre-determined period of time, wherein the first digital signal comprises first digital samples of a first analog signal from a first secondary winding of a resolver; a second filter circuit configured to calculate a second weighted sum of a second digital signal over the pre-determined period of time, wherein the second digital signal comprises second digital samples of a second analog signal from a second secondary winding of the resolver, wherein the first analog signal and the second analog signal are configured to be induced by a sine wave signal applied to an input winding of the resolver; and a rectifier configured to generate a first output and a second output by adjusting a first sign of the first weighted sum and adjusting a second sign of the second weighted sum, respectively, the circuit characterized in that each of the first filter circuit and the second filter circuit comprises: an input terminal; an output terminal; a tapped delay line, TDL coupled to the input terminal and having taps, wherein each of the taps of the TDL has a respective weight factor; and a plurality of adders configured to generate, at the output terminal, a weighted sum of digital values at the taps of the TDL. an input terminal; an output terminal; a tapped delay line, TDL coupled to the input terminal and having taps, wherein each of the taps of the TDL has a respective weight factor; and a plurality of adders configured to generate, at the output terminal, a weighted sum of digital values at the taps of the TDL.
A guide track for a slat chain comprising a) at least two guides (2, 3) at a constant distance from each other, which define a sliding surface (π), said two guides (2, 3) being distinct from each other, each guide (2, 3) having an axis of extension (X2, X3), each guide (2, 3) being formed as a single piece, said two guides (2, 3) defining a recess that can accommodate the articulation members of a slat chain; b) a support structure having a first side and a second side opposite thereto, said guides (2, 3) being fixed to said first side, said support structure being formed as a single piece; c) each guide (2, 3) being coupled to said support structure by a form-fit; characterized in that said form-fit has no recesses or undercuts; and in that a plurality of connecting screws (6, 6,... 6) are provided, for fastening each guide (2, 3) to said support structure; and in that said form-fit between each lateral guide (2, 3) and said support structure comprises at least one cogged joint. a) at least two guides (2, 3) at a constant distance from each other, which define a sliding surface (π), said two guides (2, 3) being distinct from each other, each guide (2, 3) having an axis of extension (X2, X3), each guide (2, 3) being formed as a single piece, said two guides (2, 3) defining a recess that can accommodate the articulation members of a slat chain; b) a support structure having a first side and a second side opposite thereto, said guides (2, 3) being fixed to said first side, said support structure being formed as a single piece; c) each guide (2, 3) being coupled to said support structure by a form-fit; characterized in that said form-fit has no recesses or undercuts; and in that a plurality of connecting screws (6, 6,... 6) are provided, for fastening each guide (2, 3) to said support structure; and in that said form-fit between each lateral guide (2, 3) and said support structure comprises at least one cogged joint.