mhurhangee/ep-ind-claims huggingface dataset:
A power conversion apparatus comprising: a U-phase power semiconductor module including a high side U-phase circuit and a low side U-phase circuit of an inverter circuit which converts a DC current into an AC current; a V-phase power semiconductor module including a high side V-phase circuit and a low side V-phase circuit of the inverter circuit; a W-phase power semiconductor module including a high side W-phase circuit and a low side W-phase circuit of the inverter circuit; a capacitor module including a capacitor cell which smoothes the DC current; a first bus bar (590, 599) connected to the U-phase, V-phase, and W-phase power semiconductor modules (300a-300c); and a second bus bar (549,546) connected to the capacitor cell and the first bus bar (590,599), wherein: the capacitor module contains the capacitor cell and the second bus bar (549,546) in a capacitor module case and is sealed by an insulation sealing material (548a,548b); and a connecting terminal of the second bus bar (549,546) which is connected to the first bus bar (590,599) protrudes from a surface of the insulation sealing material (548a, 548b). a U-phase power semiconductor module including a high side U-phase circuit and a low side U-phase circuit of an inverter circuit which converts a DC current into an AC current; a V-phase power semiconductor module including a high side V-phase circuit and a low side V-phase circuit of the inverter circuit; a W-phase power semiconductor module including a high side W-phase circuit and a low side W-phase circuit of the inverter circuit; a capacitor module including a capacitor cell which smoothes the DC current; a first bus bar (590, 599) connected to the U-phase, V-phase, and W-phase power semiconductor modules (300a-300c); and a second bus bar (549,546) connected to the capacitor cell and the first bus bar (590,599), wherein: the capacitor module contains the capacitor cell and the second bus bar (549,546) in a capacitor module case and is sealed by an insulation sealing material (548a,548b); and a connecting terminal of the second bus bar (549,546) which is connected to the first bus bar (590,599) protrudes from a surface of the insulation sealing material (548a, 548b). the capacitor module contains the capacitor cell and the second bus bar (549,546) in a capacitor module case and is sealed by an insulation sealing material (548a,548b); and a connecting terminal of the second bus bar (549,546) which is connected to the first bus bar (590,599) protrudes from a surface of the insulation sealing material (548a, 548b).
An aqueous pharmaceutical composition in the form of an infusion solution, which contains paracetamol and has an electrical conductivity of at most 100 μS cm -1, wherein the composition does not contain any organic solvants.
A switch control apparatus for controlling operation of a lamp on basis of the duration of an input control signal, the switch control apparatus comprising an input determination unit configured to determine the duration of the input control signal, characterized in that it comprises an output determination unit configured to determine whether the duration of the input control signal exceeds a predetermined threshold, determine, in response to the duration of the input control signal not exceeding the predetermined threshold, an output control signal having a first predetermined duration, determine, in response to the duration of the input control signal exceeding the predetermined threshold, an output control signal having a duration that is no shorter than a second predetermined duration, which second predetermined duration is longer than the first predetermined duration, and provide the output control signal for an apparatus configured to control operation of the lamp.
Method for the mass production of drive belts, each with an endless carrier and a row of transverse members that are consecutively mounted on the endless carrier and that are each provided with a front main body face and of a rear main body face where between the transverse member extends in thickness direction and of pulley contact faces where between the transverse member extends in width direction, which pulley contact faces are destined for contact with pulley discs (4, 5) of pulleys (1, 2) of a transmission wherein the drive belt can be applied, which mass production method includes the assembly of the drive belts from transverse members of at least two types (32-I, 32-II) with a mutually different dimension in thickness direction (T32-I; T32-II), wherein initially, the row of transverse members of the drive belt is assembled in at least two parts (RS1, RS2), whereof a first row part includes transverse members of both of the said types (32-I; 32-II) and is assembled according to predetermined sequence of the said types (32-I; 32-II) of transverse members and whereof a second row part is assembled from only one of the said at least two types (32-I, 32-II) of transverse members, characterized in that, after the row of transverse members has been initially assembled, a difference between a circumference length of the endless carrier and a combined length of the said first and second row parts (RS1; RS2) of the row of transverse members of the drive belt is determined, and in that, subsequently, a number of transverse members of a first one of the said two types (32-I; 32-II) of the transverse members is removed from the said second row part and a number of transverse members of a respective other one of the said two types (32-I; 32-II) of the transverse members is added, which numbers of removed and added transverse members are related to the said determined length difference.
A beamforming audio capture apparatus comprising: a microphone array; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a second beamformer coupled to the microphone array and arranged to generate a second beamformed audio output; and a difference processor for determining a difference measure between beams of the first beamformer and the second beamformer, characterized in that: the first beamformer is a filter-and-combine beamformer comprising a first plurality of beamform filters each having a first adaptive impulse response; the second beamformer is a filter-and-combine beamformer comprising a second plurality of beamform filters each having a second adaptive impulse response; and the difference processor is arranged to determine the difference measure between beams of the first beamformer and the second beamformer in response to a comparison of the first adaptive impulse responses to the second adaptive impulse responses. a microphone array; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a second beamformer coupled to the microphone array and arranged to generate a second beamformed audio output; and a difference processor for determining a difference measure between beams of the first beamformer and the second beamformer, the first beamformer is a filter-and-combine beamformer comprising a first plurality of beamform filters each having a first adaptive impulse response; the second beamformer is a filter-and-combine beamformer comprising a second plurality of beamform filters each having a second adaptive impulse response; and the difference processor is arranged to determine the difference measure between beams of the first beamformer and the second beamformer in response to a comparison of the first adaptive impulse responses to the second adaptive impulse responses.
A method of operating a mass spectrometer, comprising: supplying a quantity of ions to an ion detector (306, 400), the ion detector (306, 400) including a conversion dynode operating in a first polarity and an electron multiplier; calibrating the gain of the electron multiplier to determine a first set of calibration parameters, wherein the first set of calibration parameters model a first gain function, Gi, of the electron multiplier when the ion detector (306, 400) is operating in the first polarity, wherein G 1 =A 1 exp (B 1 ∗ U), where A 1 and B 1 are gain factors and U is applied voltage; calculating a second set of calibration parameters for the electron multiplier based on the first set of calibration parameters such that a calibration curve for the second polarity is shifted by ΔVolts relative to a calibration curve for the first polarity, wherein the second set of calibration parameters model a second gain function, G 2, of the electron multiplier when the ion detector (306, 400) is operating in the second polarity, wherein G 2 =A 2 exp (B 2 ∗ U), where A 2 and B 2 are gain factors and U is applied voltage; configuring the ion detector (306, 400) to operate at the second polarity based on the second set of calibration parameters; calibrating the electron multiplier when the ion detector (306, 400) is operating in the second polarity using the second set of calculated calibration parameters as a starting point; supplying ions of the second polarity to the mass spectrometer; and detecting an ion at a particular mass to charge ratio using the ion detector (306, 400). supplying a quantity of ions to an ion detector (306, 400), the ion detector (306, 400) including a conversion dynode operating in a first polarity and an electron multiplier; calibrating the gain of the electron multiplier to determine a first set of calibration parameters, wherein the first set of calibration parameters model a first gain function, Gi, of the electron multiplier when the ion detector (306, 400) is operating in the first polarity, wherein G 1 =A 1 exp (B 1 ∗ U), where A 1 and B 1 are gain factors and U is applied voltage; calculating a second set of calibration parameters for the electron multiplier based on the first set of calibration parameters such that a calibration curve for the second polarity is shifted by ΔVolts relative to a calibration curve for the first polarity, wherein the second set of calibration parameters model a second gain function, G 2, of the electron multiplier when the ion detector (306, 400) is operating in the second polarity, wherein G 2 =A 2 exp (B 2 ∗ U), where A 2 and B 2 are gain factors and U is applied voltage; configuring the ion detector (306, 400) to operate at the second polarity based on the second set of calibration parameters; calibrating the electron multiplier when the ion detector (306, 400) is operating in the second polarity using the second set of calculated calibration parameters as a starting point; supplying ions of the second polarity to the mass spectrometer; and detecting an ion at a particular mass to charge ratio using the ion detector (306, 400).
Method for controlling a dual three-phase machine, in particular a fractional slot concentrated winding electrical machine, having a first three-phase winding set being connected to a first AC-DC converter and having a second three-phase winding set being connected to a second AC-DC converter, the method comprising: controlling the first and the second AC-DC converter such that first electric currents carried in the first three-phase winding set are essentially 30° phase shifted relative to respective second electric currents carried in the second three-phase winding set, wherein the first converter and second converter are controlled by PWM across one fundamental period, for six separated time intervals (47a,..., 47f) in overmodulation, intercalated with six separated time intervals (49a,..., 49f) in linear range.
Gearwheel mechanism, in particular for a balancer shaft mechanism of a reciprocating-piston internal combustion engine, wherein a balancer shaft can be driven by a drive shaft via the gearwheel mechanism and wherein the balancer shaft is subjected, in a driven state, to a centrifugal force-exciting deformation process, wherein at least one gearwheel is separated by a gap into an inner part and an outer part, and the gap is filled, in a substantially pressureless manner, with a softer material than the outer and/or the inner part (3, 2), with the result that a deformation-induced force flow and/or a force impulse between the inner and the outer part (2, 3) are/is largely prevented or reduced by the inner damping of the softer material, wherein the softer material has a stiffness of 200 N/mm to 15 000 N/mm, in particular 500 N/mm to 1000 N/mm, characterized in that, on the side facing the softer material, the inner and/or outer part (2, 3) have/has, in axial orientation, a profile in the form of a third-order parabola.
Multilayer hose comprising at least one layer which comprises at least one polymer and at least one contactlessly detectable marker, wherein the contactlessly detectable marker comprises at least one substance detectable via X-radiation and/or an electromagnetic field, where the substance detectable via X-radiation and/or an electromagnetic field comprises a mixed oxide of at least two metals with the metal components iron, cobalt, nickel, tin, zinc, manganese, copper, barium, magnesium, lithium or yttrium.
A biocompatible polymer comprising hydrophobic monomers and hydrophilic monomers, wherein the biocompatible polymer is of Formula II or Formula III -[-Hydrophobic monomer 1-] m -[-Hydrophobic monomer 2-] n -[-Hydrophilic monomer-] p - Formula II -[-Hydrophobic monomer-] m -[-Hydrophilic monomer 1-] n -[-Hydrophilic monomer 2-] p - Formula III wherein m, n, and p are independently positive integers ranging from 1 to 100,000, wherein the hydrophobic monomer 1 and 2 are selected from the group consisting of methacrylate, fluorinated methacrylate, 2-phenyl acrylate, and 2-phenyl acrylamide, wherein the hydrophilic monomers 1 and 2 have the structure of formula IV: wherein R 1 is and wherein R 2 is -OCH 2 CH 2 SO 3 H, -OCH 2 CH 2 CH 2 SO 3 H, -(-CH 2 CH 2 O-) n CH 3, -OCH 2 CH 2 SO 4 - NH 4 +, -NHCH 2 CH 2 NHSO 3 - NH 4 +, -O(CH 2 CH 2 O) n -Heparin, or-O(CH 2 CH 2 O) n -Hyaluronic acid, or the hydrophilic monomers 1 and 2 are selected from the group consisting of vinyl monomers that bear sulfonic acid group(s), sulfone group(s), amino group(s), poly(ethylene glycol)-group(s), poly(propylene glycol) group(s), poly(tetramethylene glycol) group(s), hydroxyl-group(s), choline, phosphoryl choline, and combinations thereof. wherein m, n, and p are independently positive integers ranging from 1 to 100,000, wherein the hydrophobic monomer 1 and 2 are selected from the group consisting of methacrylate, fluorinated methacrylate, 2-phenyl acrylate, and 2-phenyl acrylamide, wherein the hydrophilic monomers 1 and 2 have the structure of formula IV: wherein R 1 is and wherein R 2 is -OCH 2 CH 2 SO 3 H, -OCH 2 CH 2 CH 2 SO 3 H, -(-CH 2 CH 2 O-) n CH 3, -OCH 2 CH 2 SO 4 - NH 4 +, -NHCH 2 CH 2 NHSO 3 - NH 4 +, -O(CH 2 CH 2 O) n -Heparin, or-O(CH 2 CH 2 O) n -Hyaluronic acid, or the hydrophilic monomers 1 and 2 are selected from the group consisting of vinyl monomers that bear sulfonic acid group(s), sulfone group(s), amino group(s), poly(ethylene glycol)-group(s), poly(propylene glycol) group(s), poly(tetramethylene glycol) group(s), hydroxyl-group(s), choline, phosphoryl choline, and combinations thereof.
An assembly for playing recreational games, the assembly comprising: at least three walls arranged about a common axis, each wall being connected to two adjacent walls and having at least a portion extending radially from the common axis; wherein each wall has an aperture (67, 68, 73, 80, 81) therein, which includes a sports net (68, 70, 74, 82, 83, 86) for ball sports affixed across at least a portion of the aperture. at least three walls arranged about a common axis, each wall being connected to two adjacent walls and having at least a portion extending radially from the common axis; wherein each wall has an aperture (67, 68, 73, 80, 81) therein, which includes a sports net (68, 70, 74, 82, 83, 86) for ball sports affixed across at least a portion of the aperture.
A polymer composition comprising a blend of: a) a polymer matrix, and b) 5-40 weight percent based on the total polymer composition of a homogeneous blend of TPS and TPE forming TPS/TPE alloy consisting of: 1) 10 to 90 weight percent of thermoplastic starch; 2) 10 to 90 weight percent of a hydrophilic thermoplastic elastomer selected from the group consisting of: a) block copolymers having polyester blocks and polyether blocks (COPE), b) block copolymers having polyurethane blocks and polyether or polyester blocks, and c) block copolymers having polyamide blocks and polyether blocks (PEBA), wherein said TPE comprises at least 30 percent by weight of polyethylene glycol. a) a polymer matrix, and b) 5-40 weight percent based on the total polymer composition of a homogeneous blend of TPS and TPE forming TPS/TPE alloy consisting of: 1) 10 to 90 weight percent of thermoplastic starch; 2) 10 to 90 weight percent of a hydrophilic thermoplastic elastomer selected from the group consisting of: a) block copolymers having polyester blocks and polyether blocks (COPE), b) block copolymers having polyurethane blocks and polyether or polyester blocks, and c) block copolymers having polyamide blocks and polyether blocks (PEBA), wherein said TPE comprises at least 30 percent by weight of polyethylene glycol. 1) 10 to 90 weight percent of thermoplastic starch; 2) 10 to 90 weight percent of a hydrophilic thermoplastic elastomer selected from the group consisting of: a) block copolymers having polyester blocks and polyether blocks (COPE), b) block copolymers having polyurethane blocks and polyether or polyester blocks, and c) block copolymers having polyamide blocks and polyether blocks (PEBA), wherein said TPE comprises at least 30 percent by weight of polyethylene glycol.
A method for producing a multibranched polymer, the method comprising the step of polymerizing a first vinyl monomer having a polymerization-initiating group in an α-position of a vinyl bond and a second vinyl monomer free of polymerization-initiating group in an α-position of a vinyl bond by a living radical polymerization, wherein the first vinyl monomer is a vinyl monomer represented by general formula below, wherein in the general formula, Z represents -Te-R 2, -Cl, -Br, -I, -SC(=S)R 2, -SC(=S)OR 2, or -S(C=S)NR 2 2, R 1 represents a hydrogen atom, an alkyl group having 1 to 8 carbon atoms, an aryl group, an aromatic heterocyclic group, an alkoxy group, an acyl group, an amide group, an oxycarbonyl group or a cyano group, and R 2 represents an alkyl group having 1 to 8 carbon atoms, an aryl group or an aromatic heterocyclic group, or wherein the first vinyl monomer is a vinyl monomer represented by general formula below, wherein in the general formula, R 1 represents a hydrogen atom, an alkyl group having 1 to 8 carbon atoms, an aryl group, an aromatic heterocyclic group, an alkoxy group, an acyl group, an amide group, an oxycarbonyl group or a cyano group, and R 2 represents an alkyl group having 1 to 8 carbon atoms, an aryl group, an aromatic heterocyclic group, a silyl group or a fluorine atom.
Device for folding foldable blanks, comprising a conveyor belt for conveying the blanks and a folding cylinder for picking up a first region of a blank from the conveyor belt, wherein the conveyor belt is provided with a plurality of suction openings that are arranged in a plurality of rows extending transversely to the conveying direction (x) of the blank and are arranged such that, by means of a vacuum unit assigned to said suction openings, the suction openings hold a second region of the blank on the conveyor belt at least during the folding.
A device for manipulation with the thermo-insulating cover of the massage pool or swimming massage pool between its covering position and opened position and vice versa, while the thermo-insulating cover comprises at least one pair of thermo-insulating segments (41, 42) formed of carrier thermo-insulating segment and carried thermo-insulating segment, which are together rotatably connected and in covering position are lying by their bottom surfaces on circumference of massage pool, while the carrier thermo-insulating segment is rotatably mounted on the massage pool and comprises means for changing the angle between the bottom surfaces of the thermo-insulating segments (41, 42) from 180° to 0° during the opening and from 0° to 180° during the closing of the thermo-insulating cover, whereby the means for changing the angle between the bottom surfaces of the thermo-insulating segments (41, 42) comprise a gas pressure spring, characterized in that the cylinder of the gas pressure spring is firmly mounted on the massage pool and the piston rod of the gas pressure spring is coupled to the carrier thermo-insulating segment, whereby the length of the carried thermo-insulating segment is smaller than the length of the carrier thermo-insulating segment and the carrier thermo-insulating segment is provided with a grip and the carried thermo-insulating segment is provided with a grip.
Pump group for a cooling system of an engine of a vehicle, comprising: - an impeller rotating around an axis of rotation; - a shaft, which extends along said axis of rotation, on which the impeller is mounted to be jointly rotatable with the shaft; - a mechanical drive comprising a first one-way coupling mounted on the shaft and a pulley mounted on said first coupling; - an electric drive including a second one-way coupling mounted on the shaft, a rotor mounted on the second coupling and a fixed stator coaxial to the rotor; wherein the pulley is an electromagnetic pulley normally engaged with the mechanical drive and electrically excitable to disengage the mechanical drive from the shaft. - an impeller rotating around an axis of rotation; - a shaft, which extends along said axis of rotation, on which the impeller is mounted to be jointly rotatable with the shaft; - a mechanical drive comprising a first one-way coupling mounted on the shaft and a pulley mounted on said first coupling; - an electric drive including a second one-way coupling mounted on the shaft, a rotor mounted on the second coupling and a fixed stator coaxial to the rotor;
A locking arrangement for a releasable bonnet hinge, comprising a first fastening part associated with a bonnet; a second fastening part associated with a vehicle body; a linkage arrangement connecting the first fastening part and the second fastening part in articulated manner, and a locking element which locks the first fastening part or the second fastening part in a non-released position with respect to the linkage arrangement or the respective other fastening part and is connected to one of the parts to be locked, wherein the locking element is pre-tensioned in a locking direction by a spring element, and wherein the locking element can be displaced counter to the locking direction by a release device, characterised in that the locking element is pre-tensioned at least predominantly perpendicularly to a force of the release device by the spring element, and that the locking element can be displaced axially counter to the locking direction. a first fastening part associated with a bonnet; a second fastening part associated with a vehicle body; a linkage arrangement connecting the first fastening part and the second fastening part in articulated manner, and a locking element which locks the first fastening part or the second fastening part in a non-released position with respect to the linkage arrangement or the respective other fastening part and is connected to one of the parts to be locked,