mhurhangee/ep-ind-claims huggingface dataset:
Polymer material which comprises repeating units of formula: wherein M 1 is a monomer unit selected from the group consisting of acrylate, methacrylate, ring A is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy, ring B is unsubstituted phenylene or phenylene which is substituted with fluorine, alkyl or alkoxy, Y 1, Y 2 each independently is a single covalent bond, -CO-O-, -O-OC-, m, n each independently is 0 or 1; ring C is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy; S 1 is a spacer unit, wherein if m and n are 0 and ring C is unsubstituted phenylene then the spacer unit is S 2, and if m is 1 and n is 0 and ring C is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy, then the spacer unit is S 3; wherein S 2 is a straight-chain alkylene grouping represented by-(CH 2) r -, -(CH 2) r -O-,-(CH 2) r -CO-O- and -(CH 2) r -O-CO-, wherein r is between 5 and 8, and wherein S 3 is a straight-chain alkylene grouping represented by-(CH 2) r -, -(CH 2) r -O-,-(CH 2) r -CO-O- and -(CH 2) r -O-CO-, wherein r is 9, 10, 11 or 12, Z is -O-, D is methyl, ethyl or propyl. M 1 is a monomer unit selected from the group consisting of acrylate, methacrylate, ring A is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy, ring B is unsubstituted phenylene or phenylene which is substituted with fluorine, alkyl or alkoxy, Y 1, Y 2 each independently is a single covalent bond, -CO-O-, -O-OC-, m, n each independently is 0 or 1; ring C is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy; S 1 is a spacer unit, wherein if m and n are 0 and ring C is unsubstituted phenylene then the spacer unit is S 2, and if m is 1 and n is 0 and ring C is unsubstituted phenylene or phenylene which is substituted with alkyl or alkoxy, then the spacer unit is S 3; Z is -O-, D is methyl, ethyl or propyl.
A fuel cell stack obtained by stacking a plurality of fuel cells, comprising: an internal manifold that extends in a stacking direction of the fuel cells to externally discharge a gas used in the fuel cell; and an extension member that adjoins an inner wall surface of the internal manifold and extends in the stacking direction, wherein the extension member is a bar-shaped member provided on a side opposite to a side where a gas from the fuel cells flows to the inside of the internal manifold, and has an inner side sloping surface which makes an acute angle with an inner-wall lower surface of the internal manifold in a direction perpendicular to the stacking direction, characterized in that the extension member has an upper side surface, an outer side surface and a lower surface arranged to abut an inner-wall upper surface, an inner-wall outer-surface and an inner-wall lower surface, respectively, of the internal manifold. an internal manifold that extends in a stacking direction of the fuel cells to externally discharge a gas used in the fuel cell; and an extension member that adjoins an inner wall surface of the internal manifold and extends in the stacking direction, wherein the extension member is a bar-shaped member provided on a side opposite to a side where a gas from the fuel cells flows to the inside of the internal manifold, and has an inner side sloping surface which makes an acute angle with an inner-wall lower surface of the internal manifold in a direction perpendicular to the stacking direction, characterized in that the extension member has an upper side surface, an outer side surface and a lower surface arranged to abut an inner-wall upper surface, an inner-wall outer-surface and an inner-wall lower surface, respectively, of the internal manifold.
A magnet assembly comprising: a superconducting coil; a cryogenic system comprising a cryostat and configured to maintain the superconducting coil within the cryostat at an operating temperature below the critical temperature of the superconductor; a DC voltage source located outside the cryostat; a switched mode power supply, SMPS, located inside the cryostat and configured to supply power from the DC voltage source to the superconducting coil, the SMPS comprising a voltage step-down transformer having a primary and a secondary winding; current leads connecting the DC voltage source to the SMPS; and a controller configured to cause the SMPS to supply a first amount of power to the magnet in order to ramp up the magnet to operating current, and a second amount of power to the magnet during steady state operation of the magnet, wherein the first amount of power is greater than the second amount of power. a superconducting coil; a cryogenic system comprising a cryostat and configured to maintain the superconducting coil within the cryostat at an operating temperature below the critical temperature of the superconductor; a DC voltage source located outside the cryostat; a switched mode power supply, SMPS, located inside the cryostat and configured to supply power from the DC voltage source to the superconducting coil, the SMPS comprising a voltage step-down transformer having a primary and a secondary winding; current leads connecting the DC voltage source to the SMPS; and a controller configured to cause the SMPS to supply a first amount of power to the magnet in order to ramp up the magnet to operating current, and a second amount of power to the magnet during steady state operation of the magnet, wherein the first amount of power is greater than the second amount of power.
Canagliflozinin for use in treatment of tumors, wherein a chemical name of the canagliflozin is -1,5-anhydro-1-C-[3-[[5-(4-fluorophenyl)-2-thienyl]methyl]-4-methylphenyl]-D-glucitol, with a molecular formula of C24H25FO5S and a molecular weight of 444.516, and the tumor is osteosarcoma.
A system comprising at least a mobile device and a plurality of gateways (120a-120g) whose positions are known, wherein the gateways (120a-120g) are operatively arranged to determine for each gateway a time differences of arrival (TDOA) of a signal originated by the mobile device, or the mobile device is operatively arranged to determine time difference of arrival (TDOA) of synchronised signals originated from the gateways (120a-120g); the system further comprising a solver unit operatively arranged to compute the position of the mobile device, based on said time difference of arrival (TDOA), characterised in that the solver unit is arranged to: - produce a position candidate list each candidate in the candidate list being a solution based on a combination of three or more gateways selected among the available gateways, - associate to each candidate: • an up-to-median error that is a sum of the terms up to the median points of a sorted TDOA residue error list sorted in ascending order; • a beyond-median error which is the up-to-median error plus a determined number of terms further up in the sorted TDOA residue error list sorted in ascending order; • a mean error, which is the sum of all terms of the sorted TDOA residue error list sorted in ascending order; and to - estimate the position of the mobile device from the candidate list based on the TDOA residue errors from all possible candidate solutions, wherein the position is the solution which has the least up-to-median error, or the least beyond-median error, or the least mean error. - produce a position candidate list each candidate in the candidate list being a solution based on a combination of three or more gateways selected among the available gateways, - associate to each candidate: • an up-to-median error that is a sum of the terms up to the median points of a sorted TDOA residue error list sorted in ascending order; • a beyond-median error which is the up-to-median error plus a determined number of terms further up in the sorted TDOA residue error list sorted in ascending order; • a mean error, which is the sum of all terms of the sorted TDOA residue error list sorted in ascending order; and to • an up-to-median error that is a sum of the terms up to the median points of a sorted TDOA residue error list sorted in ascending order; • a beyond-median error which is the up-to-median error plus a determined number of terms further up in the sorted TDOA residue error list sorted in ascending order; • a mean error, which is the sum of all terms of the sorted TDOA residue error list sorted in ascending order; and to - estimate the position of the mobile device from the candidate list based on the TDOA residue errors from all possible candidate solutions, wherein the position is the solution which has the least up-to-median error, or the least beyond-median error, or the least mean error.
A semiconductor device structure comprising: a layer of compound semiconductor material; and a layer of polycrystalline CVD diamond material, wherein the layer of polycrystalline CVD diamond material is bonded to the layer of compound semiconductor material via a layer of nano-crystalline diamond which is directly bonded to the layer of compound semiconductor material, the layer of nano-crystalline diamond having a thickness in a range 5 to 50 nm and configured such that an effective thermal boundary resistance (TBR eff) as measured by transient thermoreflectance at an interface between the layer of compound semiconductor material and the layer of polycrystalline CVD diamond material is no more than 50 m 2 K/GW. a layer of compound semiconductor material; and a layer of polycrystalline CVD diamond material, wherein the layer of polycrystalline CVD diamond material is bonded to the layer of compound semiconductor material via a layer of nano-crystalline diamond which is directly bonded to the layer of compound semiconductor material, the layer of nano-crystalline diamond having a thickness in a range 5 to 50 nm and configured such that an effective thermal boundary resistance (TBR eff) as measured by transient thermoreflectance at an interface between the layer of compound semiconductor material and the layer of polycrystalline CVD diamond material is no more than 50 m 2 K/GW.
A compound of general Formula, or a pharmaceutically acceptable salt thereof: wherein R 1 represents 4-trifluoromethyl, 4-trifluoromethoxy, 4-nitro, 4-hydroxyl, 4-hydroxymethyl, 4-tert-butyl, 4-cyano, or 4-amino; or H, halo, C1-C3 alkyl, C1-C3 alkoxy, C1-C3 alkylamino, or C1-C3 amido, at occurrence of mono-, di-, or tri-substitution; R 2 represents 4-trifluoromethyl, 4-trifluoromethoxy, 4-nitro, 4-hydroxyl, 4-hydroxymethyl, 4-cyano, 4-amino, 4-morpholinylmethoxy, 4-morpholinylethoxy, 4-benzylmethoxy, or 4-benzylethoxy; or H, halo, C1-C3 alkyl, C1-C3 alkoxy, C1-C3 alkylamino, 4-benzylamino, or C1-C3 amido, at occurrence of mono-, di-, or tri-substitution; R 3 represents H, -CH 2 COOH, or -CH 2 CONH 2; and n=0-3. wherein R 1 represents 4-trifluoromethyl, 4-trifluoromethoxy, 4-nitro, 4-hydroxyl, 4-hydroxymethyl, 4-tert-butyl, 4-cyano, or 4-amino; or H, halo, C1-C3 alkyl, C1-C3 alkoxy, C1-C3 alkylamino, or C1-C3 amido, at occurrence of mono-, di-, or tri-substitution; R 2 represents 4-trifluoromethyl, 4-trifluoromethoxy, 4-nitro, 4-hydroxyl, 4-hydroxymethyl, 4-cyano, 4-amino, 4-morpholinylmethoxy, 4-morpholinylethoxy, 4-benzylmethoxy, or 4-benzylethoxy; or H, halo, C1-C3 alkyl, C1-C3 alkoxy, C1-C3 alkylamino, 4-benzylamino, or C1-C3 amido, at occurrence of mono-, di-, or tri-substitution; R 3 represents H, -CH 2 COOH, or -CH 2 CONH 2; and n=0-3.
A photovoltaic device comprising: a photovoltaic element including a transparent conductive oxide film (5, 9) and a paste electrode (6, 10), formed on said transparent conductive oxide film, containing at least a metal material and a resin material; characterized in that: the conductive oxide film is provided with a surface having a contact angle of at least 40° and not more than 74° with respect to water; and said resin material contains at least 60 percent by weight and not more than 100 percent by weight of epoxy resin. a photovoltaic element including a transparent conductive oxide film (5, 9) and a paste electrode (6, 10), formed on said transparent conductive oxide film, containing at least a metal material and a resin material; characterized in that: the conductive oxide film is provided with a surface having a contact angle of at least 40° and not more than 74° with respect to water; and said resin material contains at least 60 percent by weight and not more than 100 percent by weight of epoxy resin. the conductive oxide film is provided with a surface having a contact angle of at least 40° and not more than 74° with respect to water; and said resin material contains at least 60 percent by weight and not more than 100 percent by weight of epoxy resin.
A thermophotovoltaic energy converter, comprising: a thermal emitter to generate photons of energy in response to receiving heat; and a thermal receiver arranged at a distance from the thermal emitter, the thermal receiver including a photovoltaic cell converting the received photons into electric energy, wherein the thermal emitter includes a first layer of material arranged on a surface of the thermal emitter closest to the thermal receiver, and wherein the thermal receiver includes a second layer of material arranged on a surface of the thermal receiver closest to the thermal emitter, characterized in that the material of the first layer is identical to the material of the second layer, and wherein the first layer of material and the second layer of material have surface resonant frequencies above a bandgap of the photovoltaic cell. a thermal emitter to generate photons of energy in response to receiving heat; and a thermal receiver arranged at a distance from the thermal emitter, the thermal receiver including a photovoltaic cell converting the received photons into electric energy, wherein the thermal emitter includes a first layer of material arranged on a surface of the thermal emitter closest to the thermal receiver, and wherein the thermal receiver includes a second layer of material arranged on a surface of the thermal receiver closest to the thermal emitter, characterized in that the material of the first layer is identical to the material of the second layer, and wherein the first layer of material and the second layer of material have surface resonant frequencies above a bandgap of the photovoltaic cell.
A solar cell apparatus comprising: a substrate; a first cell disposed on the substrate; and a second cell disposed on the substrate around the first cell,wherein the substrate comprises a penetration hole, and the first cell surrounds the penetration hole, further comprising a connection electrode disposed in the penetration hole and connected to the first cell, further comprising a bus bar connected to the connection electrode and disposed under the substrate. a substrate; a first cell disposed on the substrate; and a second cell disposed on the substrate around the first cell,wherein the substrate comprises a penetration hole, and the first cell surrounds the penetration hole, further comprising a connection electrode disposed in the penetration hole and connected to the first cell, further comprising a bus bar connected to the connection electrode and disposed under the substrate.
A method for automatically setting a hearing device by: - determining a feature vector (e) from an input signal of the hearing device, - providing a movable and a fixed cluster in a multidimensional space, wherein the fixed cluster is situated at a fixed first cluster position in the multidimensional space, - displacing the movable cluster in the direction of the feature vector to a second cluster position (13, 14), - assigning respectively one setting variable (15, 16), by means of which the equipment can be set, to the movable cluster and the fixed cluster, and - setting the equipment on the basis of the first cluster position, the second cluster position (13, 14) and the setting variables (15, 16). - determining a feature vector (e) from an input signal of the hearing device, - providing a movable and a fixed cluster in a multidimensional space, wherein the fixed cluster is situated at a fixed first cluster position in the multidimensional space, - displacing the movable cluster in the direction of the feature vector to a second cluster position (13, 14), - assigning respectively one setting variable (15, 16), by means of which the equipment can be set, to the movable cluster and the fixed cluster, and - setting the equipment on the basis of the first cluster position, the second cluster position (13, 14) and the setting variables (15, 16).
Method for providing at least one information from an environmental region of a motor vehicle to a driver of the motor vehicle, wherein at least one first image of the environmental region captured by a vehicle-side camera system and at least one second image of the environmental region captured by a vehicle-external camera system present within a field of view (19a, 19b) of the vehicle side-camera system are received in the method, and an image-in-image representation is generated from the at least one first image and the at least one second image for displaying on a vehicle-side display device as the at least one information, wherein a first image region for displaying the at least one first image and a second image region separate from the first image region for displaying the at least one second image are determined for the image-in-image representation (B3, B4, B5) characterized in that a perspective representation generating a depth effect of a bevel frame surrounding the second image region at least in certain areas is determined for displaying on the display device, by which the second image region appears offset with respect to the first image region in the image plane of the image-in-image representation.
An air turbine starter for starting an engine, comprising: a housing defining an inlet, an outlet, and a flow path extending between the inlet and the outlet for communicating a flow of gas therethrough; a turbine member journaled within the housing and disposed within the flow path for rotatably extracting mechanical power from the flow of gas; a gear train drivingly coupled with the turbine member; a clutch having a drive shaft that is operably coupled with the gear train; an output shaft configured to be operably coupled to and rotate with the engine; and a backdrive decoupler, characterised in that the backdrive decoupler comprises: a first set of magnets operably coupled to the drive shaft; a second set of magnets, operably coupled to the output shaft; and a member moveable between a first position and a second position wherein the member breaks a flux between the first set of magnets and the second set of magnets; wherein driving torque is transmitted from the drive shaft of the clutch to the output shaft through magnetic field lines created between the first set of magnets and the second set of magnets, and wherein when overrunning torque is transmitted the member moves to the second position and is configured to break the magnetic flux between drive shaft and output shaft thereby uncoupling torque transfer between the drive shaft and the output shaft to define a decoupled position where the output shaft is disengaged from the gear train. a housing defining an inlet, an outlet, and a flow path extending between the inlet and the outlet for communicating a flow of gas therethrough; a turbine member journaled within the housing and disposed within the flow path for rotatably extracting mechanical power from the flow of gas; a gear train drivingly coupled with the turbine member; a clutch having a drive shaft that is operably coupled with the gear train; an output shaft configured to be operably coupled to and rotate with the engine; and a backdrive decoupler, characterised in that the backdrive decoupler comprises: a first set of magnets operably coupled to the drive shaft; a second set of magnets, operably coupled to the output shaft; and a member moveable between a first position and a second position wherein the member breaks a flux between the first set of magnets and the second set of magnets; a first set of magnets operably coupled to the drive shaft; a second set of magnets, operably coupled to the output shaft; and a member moveable between a first position and a second position wherein the member breaks a flux between the first set of magnets and the second set of magnets; wherein driving torque is transmitted from the drive shaft of the clutch to the output shaft through magnetic field lines created between the first set of magnets and the second set of magnets, and wherein when overrunning torque is transmitted the member moves to the second position and is configured to break the magnetic flux between drive shaft and output shaft thereby uncoupling torque transfer between the drive shaft and the output shaft to define a decoupled position where the output shaft is disengaged from the gear train.
A system comprising: a processing engine configured to: process feedback data converted from analog feedback data to digital feedback data, wherein the feedback data includes a plurality of data stream sequences converted from the analog feedback data to the digital feedback data at a sample rate, and wherein the sample rate establishes an input sample rate of the plurality of data stream sequences for processing by the processing engine and an output sample rate of digital control signals generated by the processing engine; and based on processing of the feedback data, generate the digital control signals for controlling a system under control; and an analog-to-digital conversion interface subsystem communicatively coupled to the processing engine and configured to control the processing of the processing engine and the generation of the digital control signals by the processing engine to reduce latency in the generation of the digital control signals due to processing of the processing engine, wherein the analog-to-digital conversion interface subsystem is further configured to modify the output sample rate from an initial output sample rate to a modified output sample rate,. a processing engine configured to: process feedback data converted from analog feedback data to digital feedback data, wherein the feedback data includes a plurality of data stream sequences converted from the analog feedback data to the digital feedback data at a sample rate, and wherein the sample rate establishes an input sample rate of the plurality of data stream sequences for processing by the processing engine and an output sample rate of digital control signals generated by the processing engine; and based on processing of the feedback data, generate the digital control signals for controlling a system under control; and process feedback data converted from analog feedback data to digital feedback data, wherein the feedback data includes a plurality of data stream sequences converted from the analog feedback data to the digital feedback data at a sample rate, and wherein the sample rate establishes an input sample rate of the plurality of data stream sequences for processing by the processing engine and an output sample rate of digital control signals generated by the processing engine; and based on processing of the feedback data, generate the digital control signals for controlling a system under control; and an analog-to-digital conversion interface subsystem communicatively coupled to the processing engine and configured to control the processing of the processing engine and the generation of the digital control signals by the processing engine to reduce latency in the generation of the digital control signals due to processing of the processing engine, wherein the analog-to-digital conversion interface subsystem is further configured to modify the output sample rate from an initial output sample rate to a modified output sample rate,.