mhurhangee/ep-ind-claims huggingface dataset:
A return pad contact detection system for use with at least two pairs (20, 22) of patient return pads adapted for contacting a patient, each pair of said at least two pairs of patient return pads having two conductors attached to a corresponding patient return pad for connecting the pad to a source of a.c. energy passing through the pad, said return pad contact detection system comprising: means for producing and applying a corresponding current signal for each of said at least two pairs of patient return pads; for each pair of return pads a resonant circuit responsive to the impedance between the electrodes of that pair of patient return pads for producing at least one signal which is a function of said impedance the respective resonant circuits being tuned at different resonant frequencies; and measurement means for receiving said at least one signal for determining the impedance between the electrodes of each pair of patient return pads, wherein the frequency of said corresponding current signal for each of said at least two pairs of patient return pads is substantially equal to the frequency of at least a portion of said resonant circuitry means. means for producing and applying a corresponding current signal for each of said at least two pairs of patient return pads; for each pair of return pads a resonant circuit responsive to the impedance between the electrodes of that pair of patient return pads for producing at least one signal which is a function of said impedance the respective resonant circuits being tuned at different resonant frequencies; and measurement means for receiving said at least one signal for determining the impedance between the electrodes of each pair of patient return pads, wherein the frequency of said corresponding current signal for each of said at least two pairs of patient return pads is substantially equal to the frequency of at least a portion of said resonant circuitry means.
A vehicle mirror wiping unit, comprising: a mirror, wherein the mirror is integral mounted on to a mirror shaft; a mirror casing mounted with the mirror motor; a mirror mounting unit, consisting of: (i) the mirror, (ii) a mirror spring, (iii) a spring retaining cap, and (iv) a mirror spring holder, wherein the mirror spring holder is assembled with the mirror spring and the spring retaining cap; a pin passing through a cut-out of the spring retaining cap, and a cut-out in the mirror spring holder, wherein the mirror motor is connected to the mirror mounting unit through a motor shaft, wherein the motor shaft passes through a hook, and wherein the mirror motor is actuated in a linear motion to pull the mirror from a first end to a second end or vice versa; characterised in that a mirror shutter assembly, consisting of: (i) a mirror shutter holder, (ii) a mirror shutter, and (iii) a mirror shutter motor, and wherein a cleaning elastomer triggered by the mirror shutter motor, wherein the cleaning elastomer along with the mirror shutter moves from the first end of the mirror to the second end of the mirror, wherein a frontal surface of the mirror shutter is a reflective surface functioning as a mirror. a mirror, wherein the mirror is integral mounted on to a mirror shaft; a mirror casing mounted with the mirror motor; a mirror mounting unit, consisting of: (i) the mirror, (ii) a mirror spring, (iii) a spring retaining cap, and (iv) a mirror spring holder, wherein the mirror spring holder is assembled with the mirror spring and the spring retaining cap; a pin passing through a cut-out of the spring retaining cap, and a cut-out in the mirror spring holder, wherein the mirror motor is connected to the mirror mounting unit through a motor shaft, wherein the motor shaft passes through a hook, and wherein the mirror motor is actuated in a linear motion to pull the mirror from a first end to a second end or vice versa; characterised in that a mirror shutter assembly, consisting of: (i) a mirror shutter holder, (ii) a mirror shutter, and (iii) a mirror shutter motor, and wherein a cleaning elastomer triggered by the mirror shutter motor, wherein the cleaning elastomer along with the mirror shutter moves from the first end of the mirror to the second end of the mirror, wherein a frontal surface of the mirror shutter is a reflective surface functioning as a mirror.
A drain strainer comprising a base, a drain plate, and a cover (30;30A), the base including a drainpipe, a surrounding wall located over the drainpipe and having an inner diameter, and a connecting portion horizontally connected with the drainpipe and the surrounding wall, the drain plate mounted in the base and including a rod recess formed at a center of the drain plate, and multiple drainage holes formed on a surface of the drain plate, the cover (30;30A) being mounted on the drain plate and including a cover board (31;31A) being removable for cleaning of the drain plate, having a top surface, a bottom face and a diameter, the cover (30;30A) further including characterized in that: the top surface of the cover board (31;31A) is flush with a top end of the base, the diameter of the cover board (31;31A) being smaller than the inner diameter of the surrounding wall. a cover rod (32;32A) having a top end and a bottom end, the top end of the cover rod (32;32A) connected with the bottom face of the cover board (31;31A), and the bottom end of the cover rod (32;32A) inserted into the rod recess, the top surface of the cover board (31;31A) is flush with a top end of the base, the diameter of the cover board (31;31A) being smaller than the inner diameter of the surrounding wall. a cover rod (32;32A) having a top end and a bottom end, the top end of the cover rod (32;32A) connected with the bottom face of the cover board (31;31A), and the bottom end of the cover rod (32;32A) inserted into the rod recess,
A method for controlling at least one culture parameter in a bioreactor bag (1; 31a, 31b) provided in a bioreactor system, said method comprising the step of: - providing bioreactor information to a control unit (5; 35) controlling the bioreactor system; the method being characterised in that it includes the further step of: - controlling the at least one culture parameter in dependence of the bioreactor information; wherein the bioreactor information is the size of the bioreactor bag, and/or the weight of the bioreactor bag; the method being further characterised by the step of: - choosing one specific set among a number of different sets of control parameters in dependence of the bioreactor information. - providing bioreactor information to a control unit (5; 35) controlling the bioreactor system; the method being characterised in that it includes the further step of: - controlling the at least one culture parameter in dependence of the bioreactor information; - choosing one specific set among a number of different sets of control parameters in dependence of the bioreactor information.
A degradation estimation apparatus for estimating degradation of an energy storage device, the apparatus comprising: a state of health, SOH, acquisition unit that is configured to acquire a SOH of an energy storage device at a first time point and a SOH at a second time point after the first time point; a current data acquisition unit that is configured to acquire current data of the energy storage device detected in time series; and a learning processing unit that is configured to cause a learning model to learn based on learning data with time-series data relating to a state of charge, SOC, of the energy storage device from the first time point to the second time point based on the current data acquired by the current data acquisition unit and the SOH at the first time point as input data and with the SOH at the second time point as output data. a state of health, SOH, acquisition unit that is configured to acquire a SOH of an energy storage device at a first time point and a SOH at a second time point after the first time point; a current data acquisition unit that is configured to acquire current data of the energy storage device detected in time series; and a learning processing unit that is configured to cause a learning model to learn based on learning data with time-series data relating to a state of charge, SOC, of the energy storage device from the first time point to the second time point based on the current data acquired by the current data acquisition unit and the SOH at the first time point as input data and with the SOH at the second time point as output data.
Electrode element consisting of an integral electrode comprising two distinct catalyst components arranged in a single stand-alone piece comprising: - a valve metal substrate; - a first catalyst component applied to said substrate, said first catalyst component suitable for evolving oxygen from an aqueous solution under anodic polarisation; - a second catalyst component suitable for generating chlorine dioxide from a chlorate solution in acidic environment; said first and second catalyst component being electrically insulated from each other. - a valve metal substrate; - a first catalyst component applied to said substrate, said first catalyst component suitable for evolving oxygen from an aqueous solution under anodic polarisation; - a second catalyst component suitable for generating chlorine dioxide from a chlorate solution in acidic environment;
A file packaging method, wherein the method comprises: obtaining at least one to-be-packaged file; compressing a to-be-packaged file of the at least one to-be-packaged file to generate a compressed file; generating a storage location identifier based on a security level of the to-be-packaged file, wherein the storage location identifier indicates a storage location of a decompressed file obtained after decompression of the compressed file, wherein generating a storage location identifier based on a security level of the to-be-packaged file comprises: when the security level of the to-be-packaged file is determined to have a higher security level, generating a storage location identifier indicating that the storage location of the decompressed file is a memory used to temporarily store operation data in a CPU and data that exchange with an external memory, and when the security level of the to-be-packaged file is determined to have a lower security level, generating a storage location identifier indicating that the storage location of the decompressed file is a local disk; and packaging the compressed file and additional information that comprises the storage location identifier to obtain a file package. obtaining at least one to-be-packaged file; compressing a to-be-packaged file of the at least one to-be-packaged file to generate a compressed file; generating a storage location identifier based on a security level of the to-be-packaged file, wherein the storage location identifier indicates a storage location of a decompressed file obtained after decompression of the compressed file, wherein generating a storage location identifier based on a security level of the to-be-packaged file comprises: when the security level of the to-be-packaged file is determined to have a higher security level, generating a storage location identifier indicating that the storage location of the decompressed file is a memory used to temporarily store operation data in a CPU and data that exchange with an external memory, and when the security level of the to-be-packaged file is determined to have a lower security level, generating a storage location identifier indicating that the storage location of the decompressed file is a local disk; and when the security level of the to-be-packaged file is determined to have a higher security level, generating a storage location identifier indicating that the storage location of the decompressed file is a memory used to temporarily store operation data in a CPU and data that exchange with an external memory, and when the security level of the to-be-packaged file is determined to have a lower security level, generating a storage location identifier indicating that the storage location of the decompressed file is a local disk; and packaging the compressed file and additional information that comprises the storage location identifier to obtain a file package.
Process for manufacturing metal closing caps comprising: a) supply of a strip or plate, made of aluminium alloy of grade known to those skilled in the art as "gloss" or "high gloss", typically coated on at least one of the two sides thereof, generally the side intended for the interior of the cap, with a layer of deep-drawable lacquer, b) a first cutting operation into disks referred to as blanks, c) a stamping operation, in one or a plurality of passes, of said metal in blank form, typically using a stamping lubricant, so as to form a stamped blank, comprising a head and a skirt, typically axisymmetric along an axial direction, d) a step of degreasing said stamped blank, intended to remove typically the lubricant residue, to form a degreased blank suitable for optional lacquering, e) an optional protective and/or decorative lacquering step, and characterised in that it comprises, after the stamping step, at least one drawing step consisting of passing the stamped blank through at least one drawing ring so as to elongate and thin the metal. a) supply of a strip or plate, made of aluminium alloy of grade known to those skilled in the art as "gloss" or "high gloss", typically coated on at least one of the two sides thereof, generally the side intended for the interior of the cap, with a layer of deep-drawable lacquer, b) a first cutting operation into disks referred to as blanks, c) a stamping operation, in one or a plurality of passes, of said metal in blank form, typically using a stamping lubricant, so as to form a stamped blank, comprising a head and a skirt, typically axisymmetric along an axial direction, d) a step of degreasing said stamped blank, intended to remove typically the lubricant residue, to form a degreased blank suitable for optional lacquering, e) an optional protective and/or decorative lacquering step, and characterised in that it comprises, after the stamping step, at least one drawing step consisting of passing the stamped blank through at least one drawing ring so as to elongate and thin the metal.
Non-linear optical frequency converter, having a first optically parametric oscillator, OPO, which has an optical resonator with resonator mirrors (14, 15) and a non-linear optical OPO crystal for generating OPO radiation, wherein the optical resonator is designed to allow the OPO radiation to oscillate back and forth between the resonator mirrors (14, 15), and a frequency mixer device provided in the interior of the resonator between the two resonator mirrors (14, 15), said frequency mixer device having a non-linear optical mixer crystal for mixing the OPO radiation with mixer radiation (λ mix) in order to generate, through sum frequency generation, a resulting radiation (λ result), wherein the first optically parametric oscillator has a coupling-in device, and wherein a tunable radiation source is provided for supplying tunable mixer radiation (λ mix) which can be coupled into the frequency mixer device as mixer radiation via the coupling-in device, characterized in that the tunable radiation source has a second optically parametric oscillator.
A method for programming a memory device, comprising: in response to a command to program data in a set of memory cells in a set of NAND strings (NS0A to NSOA-14), where the memory cells are connected to a plurality of word lines (270d, 271d, 272d, 273d, 274d; 270s, 271s, 272s, 273s, 274s; 275d, 276d, 277d, 278d; 275s, 276s, 277s, 278s; 390, 391, 392, 393, 394, 395, 396, 397, 398, 399) extending between a drain-side word line (272d, 397) at a drain-end (DE, DEa) of the set of NAND strings and a source-side word line (272s, 391) at a source-side (SE, SEa) of the set of NAND strings, programming memory cells connected to the drain-side word line to a plurality of target data states using a first set of verify voltages (VvAe, VvBe, VvCe; VvAeL, VvBeL, VvCeL; VvAe, VvBe, VvCe; VvAe, VvBe, VvCe, VvDe, VvEe, VvFe, VvGe), characterised in that the memory cells connected to the drain-side word line are programmed before programming memory cells connected to other word lines of the plurality of word lines, and each memory cell of the set of memory cells comprises a charge-trapping material; and by subsequently programming memory cells connected to another word line of the plurality of word lines to the plurality of target data states using a second set of verify voltages (VvA, VvB, VvC; VvA, VvB, VvC, VvD, VvE, VvF, VvG), wherein a lowest verify voltage (VvAe) of the first set of verify voltages is higher than a lowest verify voltage (VvA) of the second set of verify voltages. in response to a command to program data in a set of memory cells in a set of NAND strings (NS0A to NSOA-14), where the memory cells are connected to a plurality of word lines (270d, 271d, 272d, 273d, 274d; 270s, 271s, 272s, 273s, 274s; 275d, 276d, 277d, 278d; 275s, 276s, 277s, 278s; 390, 391, 392, 393, 394, 395, 396, 397, 398, 399) extending between a drain-side word line (272d, 397) at a drain-end (DE, DEa) of the set of NAND strings and a source-side word line (272s, 391) at a source-side (SE, SEa) of the set of NAND strings, programming memory cells connected to the drain-side word line to a plurality of target data states using a first set of verify voltages (VvAe, VvBe, VvCe; VvAeL, VvBeL, VvCeL; VvAe, VvBe, VvCe; VvAe, VvBe, VvCe, VvDe, VvEe, VvFe, VvGe), characterised in that the memory cells connected to the drain-side word line are programmed before programming memory cells connected to other word lines of the plurality of word lines, and each memory cell of the set of memory cells comprises a charge-trapping material; and by subsequently programming memory cells connected to another word line of the plurality of word lines to the plurality of target data states using a second set of verify voltages (VvA, VvB, VvC; VvA, VvB, VvC, VvD, VvE, VvF, VvG), wherein a lowest verify voltage (VvAe) of the first set of verify voltages is higher than a lowest verify voltage (VvA) of the second set of verify voltages.
A mobile fluoroscopy imaging system, comprising: a portable radiation source adapted to move in all degrees of freedom; a portable detector operable to detect the radiation from the radiation source, wherein the detector is adapted to move independently of the radiation source in all degrees of freedom; and wherein the radiation source and the detector each comprises an alignment sensor (43, 42) in communication with a computer; wherein the computer is in communication with the radiation source and the detector; and wherein the position, distance and orientation of the radiation source and the detector are established by the computer, characterized in that the portable radiation source is adapted to emit radiation in both, single and, alternatively, pulse emissions, the computer sends an activation signal to the radiation source to indicate when radiation may be emitted, and in that the radiation source is prevented from emission of radiation until the detector and the radiation source have achieved one or more predetermined alignment conditions. a portable radiation source adapted to move in all degrees of freedom; a portable detector operable to detect the radiation from the radiation source, wherein the detector is adapted to move independently of the radiation source in all degrees of freedom; and wherein the radiation source and the detector each comprises an alignment sensor (43, 42) in communication with a computer; wherein the computer is in communication with the radiation source and the detector; and wherein the position, distance and orientation of the radiation source and the detector are established by the computer, characterized in that the portable radiation source is adapted to emit radiation in both, single and, alternatively, pulse emissions, the computer sends an activation signal to the radiation source to indicate when radiation may be emitted, and in that the radiation source is prevented from emission of radiation until the detector and the radiation source have achieved one or more predetermined alignment conditions.
A support system comprising: a first layer comprising a vapor-permeable and liquid-impermeable material; a second layer comprising: a vapor-impermeable and liquid-impermeable material; and a plurality of protrusions wherein the protrusions are air-filled encapsulated volumes; wherein the first layer is in partial contact with the second layer through said plurality of protrusions such that a plurality of channels are formed between the first layer and the second layer. a first layer comprising a vapor-permeable and liquid-impermeable material; a second layer comprising: a vapor-impermeable and liquid-impermeable material; and a plurality of protrusions wherein the protrusions are air-filled encapsulated volumes; a vapor-impermeable and liquid-impermeable material; and a plurality of protrusions wherein the protrusions are air-filled encapsulated volumes; wherein the first layer is in partial contact with the second layer through said plurality of protrusions such that a plurality of channels are formed between the first layer and the second layer.
Method for determining and shifting the optimum gear before driving into a bend for a motor vehicle comprising an automatic transmission, wherein a cornering speed limit is determined for a bend, detected by a navigation device by means of a digital map in the course of the road lying ahead, as a function of vehicle data, bend data and carriageway data, characterized in that the cornering speed limit is additionally determined as a function of a sportiness meter (FTyp), wherein the current optimum gear for the bend lying ahead is determined on the basis of the determined cornering speed limit and the sportiness meter (FTyp), and wherein after the determination of the current optimum gear it is checked whether the current optimum gear deviates from the engaged gear (RGA DEST), wherein shifting down into the current optimum gear occurs when a deviation is detected and a driver's action is occurring which brings about a deceleration of the vehicle and/or a reduction in the speed of the vehicle.
Drive having a central housing part, wherein a compensation element is arranged in a recess of the central housing part, wherein the compensation element has a recess, wherein the recess of the central housing part is of pot-like design, wherein a passage through the central housing part is arranged in the pot bottom, wherein the drive has an electric motor and a gearing, wherein a bearing of an output shaft and a bearing of a rotor shaft are each received in the central housing part, and wherein the compensation element is arranged for pressure compensation between the spatial region of the gearing and the spatial region of the motor, wherein the inner wall of the recess of the compensation element at least partly delimits the spatial region of the motor and the outer surface of the compensation element at least partly delimits the spatial region of the gearing, characterised in that a screw-like inner toothing region is formed in the recess of the compensation element, wherein the compensation element, in particular elastically deformable compensation element, has a base body, with which a lid part is integrally formed, wherein the lid part can be pressed into and/or force-fittingly connected to a receiving region of the base body, wherein at least one sealing lip is formed, in particular two sealing lips are formed, at an axial end region of the base body, wherein the lid part can be pressed into the axial end region, in particular at the inner wall there.
An antibody that specifically binds human CSF-1R variant (SEQ ID NO. 15), comprising a heavy chain comprising the amino acid sequence of SEQ ID NO:9 and a light chain comprising the amino acid sequence of SEQ ID NO:10.