mhurhangee/ep-ind-claims huggingface dataset:
Polarization cell comprising: - a rectangular conductive plane having an opening; - a terminal of application of an input signal located inside of the opening; - a first switching element coupling the terminal to a first region of the conductive plane; - a second switching element coupling the terminal to a second region of the conductive plane; and - a patch antenna adapted to transmit the input signal to the terminal, characterized in that the opening is off-centered with respect to the conductive plane, the first and second regions of the conductive plane being respectively located in the vicinity of first and second corners (C1, C2) of the conductive plane, the first and second corners being coupled by a same side of the conductive plane. - a rectangular conductive plane having an opening; - a terminal of application of an input signal located inside of the opening; - a first switching element coupling the terminal to a first region of the conductive plane; - a second switching element coupling the terminal to a second region of the conductive plane; and - a patch antenna adapted to transmit the input signal to the terminal,
A child resistant blister pack, the blister pack comprising: a blister layer comprising a plurality of blister cavities for receiving a product; a frangible retaining layer attached to said blister layer over said blister cavities to retain product within the blister cavities; a first backing layer attached to said retaining layer on a side opposite said blister layer, said first backing layer comprising a line of weakness aligned with each said blister cavity; and a second backing layer attached to said first backing layer on a side opposite said retaining layer; said second backing layer comprising a plurality of removable sections (18A, 18B); characterised in that at least two removable sections (18A, 18B) are arranged over each said line of weakness in the underlying first backing layer, said line of weakness being a single line of weakness provided per blister cavity, the line of weakness being aligned generally with a major axis of the blister cavity. a blister layer comprising a plurality of blister cavities for receiving a product; a frangible retaining layer attached to said blister layer over said blister cavities to retain product within the blister cavities; a first backing layer attached to said retaining layer on a side opposite said blister layer, said first backing layer comprising a line of weakness aligned with each said blister cavity; and a second backing layer attached to said first backing layer on a side opposite said retaining layer;
A strain sensor device mounted to an implantable plate in a subject for monitoring strain applied to the implantable plate, the strain sensor device comprising: a substrate comprising silicon; a dielectric material comprising silicon nitride disposed over the substrate as a capacitor dielectric, the dielectric material undergoing strain as the implantable plate mounted to the strain sensor undergoes strain; and at least one conductive coil comprised of gold and having a spiral configuration disposed on the dielectric material; a resonator composed of the dielectric material and the conductive coil and that functions as a strain gauge; wherein the substrate, the dielectric material, and the conductive coil are configured as a biocompatible strain sensor device for implantation in a biological subject; wherein the resonator is inductively powered without an incorporated power supply wherein the resonator generates signals corresponding to a resonant frequency of the resonator in response to electromagnetic waves directed toward the strain sensor device; and wherein the resonant frequency shifts in correspondence with strain applied to the resonator by the implantable plate. a substrate comprising silicon; a dielectric material comprising silicon nitride disposed over the substrate as a capacitor dielectric, the dielectric material undergoing strain as the implantable plate mounted to the strain sensor undergoes strain; and at least one conductive coil comprised of gold and having a spiral configuration disposed on the dielectric material; a resonator composed of the dielectric material and the conductive coil and that functions as a strain gauge; wherein the substrate, the dielectric material, and the conductive coil are configured as a biocompatible strain sensor device for implantation in a biological subject; wherein the resonator is inductively powered without an incorporated power supply wherein the resonator generates signals corresponding to a resonant frequency of the resonator in response to electromagnetic waves directed toward the strain sensor device; and wherein the resonant frequency shifts in correspondence with strain applied to the resonator by the implantable plate.
An integrated circuit comprising: a central processing unit, CPU; a memory configured for storing data and CPU-executable instructions; a timer block bank comprising a plurality of timer instances which are selectively activated to collect runtime performance data during execution of application code by measuring specified software execution events; a single performance monitor control register comprising a plurality of register fields for independently controlling activation behavior of the plurality of timer instances in response to a single write operation to the performance monitor control register; and one or more communication busses (116, 117) connected to communicatively couple the CPU, the memory, the timer block bank, and the performance monitor control register, the integrated circuit characterised in that the plurality of register fields of the single performance monitor control register comprises one or more pairs of write-1-clear (W1C) control register fields, wherein a successful clear operation of a first write-1-clear control register field in a pair sets the other write-1-clear control register field of the said pair. a central processing unit, CPU; a memory configured for storing data and CPU-executable instructions; a timer block bank comprising a plurality of timer instances which are selectively activated to collect runtime performance data during execution of application code by measuring specified software execution events; a single performance monitor control register comprising a plurality of register fields for independently controlling activation behavior of the plurality of timer instances in response to a single write operation to the performance monitor control register; and one or more communication busses (116, 117) connected to communicatively couple the CPU, the memory, the timer block bank, and the performance monitor control register, the integrated circuit characterised in that the plurality of register fields of the single performance monitor control register comprises one or more pairs of write-1-clear (W1C) control register fields, wherein a successful clear operation of a first write-1-clear control register field in a pair sets the other write-1-clear control register field of the said pair.
A method of manufacturing a chemical reaction heat source for use in heaters for down-hole applications, said method comprising: preparing a solid fuel composition mixture that comprises thermite and one or more binding agents that maintain the solid form of the solid fuel composition during burning; shaping the mixture into a shaped mixture that takes the form of a sheet or block; heating the shaped mixture to solidify the shaped mixture; and characterised by breaking the shaped mixture into a plurality of fragments to form the chemical reaction heat source. preparing a solid fuel composition mixture that comprises thermite and one or more binding agents that maintain the solid form of the solid fuel composition during burning; shaping the mixture into a shaped mixture that takes the form of a sheet or block; heating the shaped mixture to solidify the shaped mixture; and characterised by breaking the shaped mixture into a plurality of fragments to form the chemical reaction heat source.
A Bragg mirror comprising a stack of a plurality of layers arranged in an axial direction, wherein the plurality of layers comprises at least one first layer comprising, in a radial direction (r) extending radially outwards from the axis of the axial direction, a first material and a second material, wherein the first material is a first metal and the second material is a different material with respect to the first material, and wherein the first material is radially embedded by the second material in the first layer, or wherein the second material is radially embedded by the first material in the first layer; wherein the plurality of layers further comprises at least one second layer comprising a third material, and at least one third layer comprising the first material, wherein the third material is a second metal, characterised in that the embedding material forms a loop surrounding the embedded material, and the embedded material (M1;M2) forms a filling of the loop, such that the upper/lower surfaces of the embedding material and the embedded material are on the same plane.
Assembly for a fuel cell stack, comprising: a polar plate, a frame which is connected to the polar plate by a material bond, wherein the frame has, on a side facing away from the polar plate, at least one seal connected to the frame, and a membrane-electrode arrangement comprising a membrane, catalytic converters arranged on both sides thereof and gas diffusion layers on both sides of the catalytic converters, wherein the membrane-electrode arrangement is fixed to the polar plate and/or the frame and wherein an outer edge region of the membrane-electrode arrangement is arranged at least partially between the frame and the polar plate, characterised in that the polar plate has a recess, and the membrane-electrode arrangement is arranged in the recess in such a way that the membrane lies flat on the polar plate. a polar plate, a frame which is connected to the polar plate by a material bond, wherein the frame has, on a side facing away from the polar plate, at least one seal connected to the frame, and a membrane-electrode arrangement comprising a membrane, catalytic converters arranged on both sides thereof and gas diffusion layers on both sides of the catalytic converters, wherein the membrane-electrode arrangement is fixed to the polar plate and/or the frame and wherein an outer edge region of the membrane-electrode arrangement is arranged at least partially between the frame and the polar plate, characterised in that the polar plate has a recess, and the membrane-electrode arrangement is arranged in the recess in such a way that the membrane lies flat on the polar plate.
A manufacturing assistance apparatus (100, 300) comprising: - a learning unit configured to load a plurality of pieces of actual measurement data in each of which a gap and a plurality of parameters are associated with each other, and construct an estimation model on a basis of machine learning in which the plurality of pieces of actual measurement data serve as teacher data, the gap being provided between a first workpiece (Wa) and a second workpiece (Wb) that are configured to structure an airframe of an aircraft and that are configured to be fastened to each other, the estimation model estimating the gap from the plurality of parameters, wherein the plurality of parameters are those that are configured to influence the gap and wherein the plurality of parameters are configured to be measured for or derived from a set of the first workpiece (Wa) and the second workpiece (Wb); - an estimator configured to derive an estimation value of a length of the gap on which measurement has not yet been performed, on a basis of the estimation model constructed by the learning unit and the plurality of parameters; and - a correction selector configured to select a correction procedure that allows the gap to be closer to an application range in which a previously-created standard shim is available, when the estimation value derived by the estimator falls outside the application range, wherein the manufacturing assistance apparatus (100, 300) is configured to select a shim to be inserted into the gap on the basis of the estimation value of the length of the gap. - a learning unit configured to load a plurality of pieces of actual measurement data in each of which a gap and a plurality of parameters are associated with each other, and construct an estimation model on a basis of machine learning in which the plurality of pieces of actual measurement data serve as teacher data, the gap being provided between a first workpiece (Wa) and a second workpiece (Wb) that are configured to structure an airframe of an aircraft and that are configured to be fastened to each other, the estimation model estimating the gap from the plurality of parameters, wherein the plurality of parameters are those that are configured to influence the gap and wherein the plurality of parameters are configured to be measured for or derived from a set of the first workpiece (Wa) and the second workpiece (Wb); - an estimator configured to derive an estimation value of a length of the gap on which measurement has not yet been performed, on a basis of the estimation model constructed by the learning unit and the plurality of parameters; and - a correction selector configured to select a correction procedure that allows the gap to be closer to an application range in which a previously-created standard shim is available, when the estimation value derived by the estimator falls outside the application range,
A system configured to apply an in vivo force to a stone in a body, the system comprising a. a central processing unit; b. a pushing ultrasound transducer; c. a user interface; and d. an imaging apparatus configured to locate said stone for the application of pushing ultrasound, by the use of imaging Doppler or B-mode ultrasound, and wherein the frequency of said imaging ultrasound is in the range of 1-5 MHz; wherein each of said pushing ultrasound transducer and user interface are operatively connected through said central processing unit, said pushing ultrasound transducer being configured to apply pushing ultrasound waves to said stone, said pushing ultrasound waves having an I SPTA > 3 W/cm 2, and a frequency in the range of 0.25-5 MHz, wherein said pushing ultrasound transducer and said imaging apparatus are configured as one transducer; characterized in that the system is configured to interleave imaging pulses from the imaging apparatus within pushing pulses from the pushing ultrasound transducer for real time imaging. a. a central processing unit; b. a pushing ultrasound transducer; c. a user interface; and d. an imaging apparatus configured to locate said stone for the application of pushing ultrasound, by the use of imaging Doppler or B-mode ultrasound, and wherein the frequency of said imaging ultrasound is in the range of 1-5 MHz;
A method for positioning a component of a blow-moulding machine, namely for positioning a stretching rod, in the case of which a fluid drive moves the component along a guide, wherein at least one positioning marker of the component is detected by at least one sensor, wherein an output signal of the sensor is supplied to a control unit, and that the control unit regulates a position of the component by means of a variation of the supply of the fluid of the fluid drive as a function of output signal of the sensor, wherein a pneumatic drive is used as fluid drive, characterised in that a linear motor is used as sensor.
A thermoplastic resin composition comprising: a graft copolymer obtained by graft-polymerizing a monomer mixture containing an aromatic vinyl-based monomer and a vinyl cyanide-based monomer in the presence of an acryl-based rubbery polymer which is obtained by copolymerizing 97 to 99.3% by weight of an acrylic acid ester-based monomer (a) and 0.7 to 3% by weight of a polyfunctional monomer (b) and has a volume average particle size of 0.10 to 0.3 μm; and a vinyl-based copolymer obtained by copolymerizing at least an aromatic vinyl-based monomer and a vinyl cyanide-based monomer, the thermoplastic resin composition containing 30 to 70 parts by weight of the graft copolymer and 30 to 70 parts by weight of the vinyl-based copolymer based on 100 parts by weight of the total of the graft copolymer and the vinyl-based copolymer, wherein the graft copolymer satisfies the following formula for the ratio of a gel swelling degree (α) of the acryl-based rubbery polymer in toluene to a graft ratio (β) of the graft copolymer ((α)/(β)), and particles of the graft copolymer are aggregated in the thermoplastic resin composition. 0.4 ≤ α / β ≤ 2.0
A fiber optic distribution device for handling optical fibers, especially wall box, the fiber optic distribution device comprises: a housing with a back wall, a front wall and side walls (23, 24, 25, 26) defining together an interior of the housing; fiber optic management units (29, 30, 31) like patch units and/or splice units and/or overlength units for handling optical fibers and/or junctions between optical fibers, wherein the fiber optic management units (29, 30, 31) are positioned in the interior of the housing, and wherein the fiber optic management units (29, 30, 31) are mounted to the back wall of the housing; the back wall comprises at least one set of parallel grooves, whereby each fiber optic management unit (29, 30, 31) is mounted to the back wall by fastening elements acting together with at least one of grooves (28, 28'); characterized in that the back wall comprises a first set of parallel grooves running in a first direction and a second set of parallel grooves running in a second direction, wherein the first set of parallel grooves is intersecting the second set of parallel grooves. a housing with a back wall, a front wall and side walls (23, 24, 25, 26) defining together an interior of the housing; fiber optic management units (29, 30, 31) like patch units and/or splice units and/or overlength units for handling optical fibers and/or junctions between optical fibers, wherein the fiber optic management units (29, 30, 31) are positioned in the interior of the housing, and wherein the fiber optic management units (29, 30, 31) are mounted to the back wall of the housing; the back wall comprises at least one set of parallel grooves, whereby each fiber optic management unit (29, 30, 31) is mounted to the back wall by fastening elements acting together with at least one of grooves (28, 28'); characterized in that the back wall comprises a first set of parallel grooves running in a first direction and a second set of parallel grooves running in a second direction, wherein the first set of parallel grooves is intersecting the second set of parallel grooves.
Method for operating an internal combustion engine, comprising: - determining an emissions mean value of a pollutant in the exhaust gas of the internal combustion engine by virtue of a quantity of the pollutant in the exhaust gas being determined while the internal combustion engine outputs a specified carbon dioxide quantity, and - setting (13, 14) an operating parameter of the internal combustion engine in a manner dependent on the emissions mean value and on at least one specified or specifiable threshold value (GW1, GW2), characterized in that the emissions mean value is determined as a floating mean value of the pollutant emission in relation to the specified carbon dioxide quantity. - determining an emissions mean value of a pollutant in the exhaust gas of the internal combustion engine by virtue of a quantity of the pollutant in the exhaust gas being determined while the internal combustion engine outputs a specified carbon dioxide quantity, and - setting (13, 14) an operating parameter of the internal combustion engine in a manner dependent on the emissions mean value and on at least one specified or specifiable threshold value (GW1, GW2), characterized in that the emissions mean value is determined as a floating mean value of the pollutant emission in relation to the specified carbon dioxide quantity.
A method for manufacturing a high strength galvanized steel sheet having a zinc coating layer with an amount of deposition of coating of 20 to 120 g/m 2 per one surface on the surface of a base steel sheet having a chemical composition consisting of C: 0.03% to 0.35%, Si: 0.01% to 0.50%, Mn: 3.6% to 8.0%, Al: 0.001% to 1.000%, P ≤ 0.10%, S ≤ 0.010%, and optionally at least one selected from B: 0.001% to 0.005%, Nb: 0.005% to 0.050%, Ti: 0.005% to 0.050%, Cr: 0.001% to 1.000%, Mo: 0.05% to 1.00%, Cu: 0.05% to 1.00%, and Ni: 0.05% to 1.00%, and the balance comprising Fe and incidental impurities, on a percent by mass basis, the method comprising the steps of hot rolling, cold rolling and subjecting the base steel sheet to annealing and galvanization treatment in a continuous galvanizing line, characterized in that the maximum steel sheet temperature in an annealing furnace is 600°C or higher and 750°C or lower, the steel sheet transit time in a temperature region of the maximum steel sheet temperature of 600°C or higher and 750°C or lower is specified to be 30 seconds or more and 10 minutes or less, and the dew point in an atmosphere consisting of H 2, N 2, H 2 O, optionally CO 2 and/or CO, and incidental impurity gases is specified to be -10°C or higher.
An offshore wind turbine assembly comprising: a plurality of wind turbines adapted to be floatable on water when situated at an offshore location, each wind turbine of the plurality of wind turbines comprising a support structure adapted to be partially submersed in water when situated at the offshore location, the support structure having a longitudinal axis; each wind turbine of the plurality of wind turbines being connected with at least one of the other wind turbines by means of cables, arranged such that respective cables extend from at least a first and a second position different from each other along the longitudinal axis of the support structure of the wind turbine to corresponding at least a first and a second position different from each other along the longitudinal axis of each support structure of the respective at least one of the other wind turbines; characterized in that the offshore wind turbine assembly further comprises a power collection and/or communications system interconnecting each of the plurality of wind turbines, wherein the power collection and/or communications system is at least partially comprised in at least some of the cables interconnecting the plurality of wind turbines, the power collection and/or communications systems being adapted to at least collect, convey or distribute power generated by the plurality of wind turbines. a plurality of wind turbines adapted to be floatable on water when situated at an offshore location, each wind turbine of the plurality of wind turbines comprising a support structure adapted to be partially submersed in water when situated at the offshore location, the support structure having a longitudinal axis; each wind turbine of the plurality of wind turbines being connected with at least one of the other wind turbines by means of cables, arranged such that respective cables extend from at least a first and a second position different from each other along the longitudinal axis of the support structure of the wind turbine to corresponding at least a first and a second position different from each other along the longitudinal axis of each support structure of the respective at least one of the other wind turbines; characterized in that the offshore wind turbine assembly further comprises a power collection and/or communications system interconnecting each of the plurality of wind turbines, wherein the power collection and/or communications system is at least partially comprised in at least some of the cables interconnecting the plurality of wind turbines, the power collection and/or communications systems being adapted to at least collect, convey or distribute power generated by the plurality of wind turbines.