mhurhangee/ep-ind-claims huggingface dataset:
A handheld measurement device, comprising: a sensor interface adapted to receive a sensor strip containing a fluid sample, the sensor interface including at least two contacts; a signal generator; and a processor, the processor being configured to cause the signal generator to provide an input signal between the at least two contacts, the input signal including one or more duty cycles, each duty cycle including an excitation and a relaxation, each excitation of the one or more duty cycles having a pulse width of between about 0.3 seconds and about 0.8 seconds, wherein the processor is further configured to (i) measure at least one output signal responsive to a measurable species within less than 300 milliseconds of providing the excitation pulse of one of the one or more duty cycles, and (ii) determine a concentration of an analyte in the fluid sample in response to the measured at least one output signal. a sensor interface adapted to receive a sensor strip containing a fluid sample, the sensor interface including at least two contacts; a signal generator; and a processor, the processor being configured to cause the signal generator to provide an input signal between the at least two contacts, the input signal including one or more duty cycles, each duty cycle including an excitation and a relaxation, each excitation of the one or more duty cycles having a pulse width of between about 0.3 seconds and about 0.8 seconds, wherein the processor is further configured to (i) measure at least one output signal responsive to a measurable species within less than 300 milliseconds of providing the excitation pulse of one of the one or more duty cycles, and (ii) determine a concentration of an analyte in the fluid sample in response to the measured at least one output signal.
A combustion pressure sensor formed of a ring-shaped cylindrical body, the combustion pressure sensor detecting combustion pressure in a combustion chamber of an engine, wherein the cylindrical body forms a sealed space sealed with a ring-shaped diaphragm on one side and with a ring-shaped support member on an opposite side, the sealed space being defined by an external cylindrical member and an internal cylindrical member coaxial with each other, the diaphragm has a ring-shaped pressure receiving part formed on a front surface of the diaphragm facing the combustion chamber to receive pressure from the combustion chamber and to deflect, and the diaphragm has a ring-shaped transmitting part formed on a rear surface of the diaphragm to transmit the received pressure to a pressure transmitting member, the pressure transmitting member and a pressure detecting element are provided in the sealed space, and the pressure transmitting member abuts against the ring-shaped transmitting part of the diaphragm, the pressure detecting element abuts against the pressure transmitting member, and the ring-shaped support member abuts against the pressure detecting element; and wherein the ring-shaped transmitting part and the ring-shaped pressure receiving part of the diaphragm are formed integrally, a ring thickness is smaller at the ring-shaped transmitting part than at the ring-shaped pressure receiving part, and the ring-shaped transmitting part is provided in a central part of a thickness direction of the ring-shaped pressure receiving part, thereby forming a T-shape cross section, and wherein the ring-shaped transmitting part of the diaphragm is formed so as to become smaller gradually in the ring thickness from its side abutting the pressure transmitting member toward its side abutting the ring-shaped pressure receiving part of the diaphragm.
A fuel cell comprising: a) a substrate; b) first and second flow paths for admitting fuel into the first flow path and oxidant into the second flow path; c) a proton exchange membrane, vertical with respect to the substrate, enclosing an area and having a first and second side separating the first flow path from the second flow path; d) a first electrode on the first side of the proton exchange membrane and a second electrode on the second side of the proton exchange membrane; e) a catalyst in electrical communication with the proton exchange membrane sides and the electrodes; and f) a cover made from a gas impermeable material which forms a seal with the proton exchange membrane. a) a substrate; b) first and second flow paths for admitting fuel into the first flow path and oxidant into the second flow path; c) a proton exchange membrane, vertical with respect to the substrate, enclosing an area and having a first and second side separating the first flow path from the second flow path; d) a first electrode on the first side of the proton exchange membrane and a second electrode on the second side of the proton exchange membrane; e) a catalyst in electrical communication with the proton exchange membrane sides and the electrodes; and f) a cover made from a gas impermeable material which forms a seal with the proton exchange membrane.
A system for supporting a dynamic resource broker in a transactional middleware machine environment, comprising: one or more microprocessors; a deployment center running on the one or more microprocessors in the transactional middleware machine environment; and a plurality of deployment agents (111, 112, 113, 114, 115), each of which is associated with a respective transactional middleware machine (101, 102, 103, 104, 105) of a plurality of transactional middleware machines in a transactional domain (108; 109) in the transactional middleware machine environment, wherein the deployment center operates to receive machine usage information from the deployment agents, and wherein the deployment center operates to dynamically scale up/down resources used in the transactional domain based on the resource usage information collected by the deployment agents; wherein the deployment center is responsible for managing multiple transactional domains, and the system is configured to assign a master machine within each transactional domain, wherein the master machine is always available for performing transactional services so that the configuration of the master machine within each transactional domain remains unchanged. one or more microprocessors; a deployment center running on the one or more microprocessors in the transactional middleware machine environment; and a plurality of deployment agents (111, 112, 113, 114, 115), each of which is associated with a respective transactional middleware machine (101, 102, 103, 104, 105) of a plurality of transactional middleware machines in a transactional domain (108; 109) in the transactional middleware machine environment, wherein the deployment center operates to receive machine usage information from the deployment agents, and wherein the deployment center operates to dynamically scale up/down resources used in the transactional domain based on the resource usage information collected by the deployment agents; wherein the deployment center is responsible for managing multiple transactional domains, and the system is configured to assign a master machine within each transactional domain, wherein the master machine is always available for performing transactional services so that the configuration of the master machine within each transactional domain remains unchanged.
A method comprising: receiving, at a mobile device from a tracking device, a hash value generated based on a set of device parameters associated with the tracking device; computing, by the mobile device, a candidate hash value for each of one or more tracking devices associated with the mobile device based on the set of device parameters; responsive to a determination that the received hash value matches a candidate hash value: providing an identity of the tracking device and a location associated with the tracking device to a tracking server, the tracking server configured to store location in association with the tracking device identity; and responsive to a determination that the received hash value does not match a candidate hash value: providing the received hash value and the location associated with the tracking device to the tracking server, the tracking server configured to determine an identity of the tracking device by matching the received hash value to a hash value associated with a tracking device associated with the tracking server and generated based on the set of device parameters, and to store the determined identity in association with the location. receiving, at a mobile device from a tracking device, a hash value generated based on a set of device parameters associated with the tracking device; computing, by the mobile device, a candidate hash value for each of one or more tracking devices associated with the mobile device based on the set of device parameters; responsive to a determination that the received hash value matches a candidate hash value: providing an identity of the tracking device and a location associated with the tracking device to a tracking server, the tracking server configured to store location in association with the tracking device identity; and responsive to a determination that the received hash value does not match a candidate hash value: providing the received hash value and the location associated with the tracking device to the tracking server, the tracking server configured to determine an identity of the tracking device by matching the received hash value to a hash value associated with a tracking device associated with the tracking server and generated based on the set of device parameters, and to store the determined identity in association with the location.
Drug delivery device for administering a drug, comprising: - a body adapted to retain a cartridge containing a drug, - at least one electrical unit and a port for electrically contacting the electrical unit, - an adapter for attaching an injection needle to the drug delivery device, - a safety mechanism (S1 to S6) arranged to prevent contacting the electrical unit through the port whilst an injection needle is in fluid communication with the cartridge and arranged to prevent establishing a fluid communication between an injection needle and the cartridge whilst the port is configured to allow contacting the electrical unit, wherein the port is arranged within the body behind an opening in the body, wherein a movable cover is arranged for exposing the opening in an open position or obscuring the opening in a closed position, characterized in that a distal end of the cover protrudes into the range of the adapter in such a manner that the distal end interferes with a needle hub (4.1) of the needle being assembled to the adapter such that the needle hub (4.1) displaces the distal end and the cover towards the closed position. - a body adapted to retain a cartridge containing a drug, - at least one electrical unit and a port for electrically contacting the electrical unit, - an adapter for attaching an injection needle to the drug delivery device, - a safety mechanism (S1 to S6) arranged to prevent contacting the electrical unit through the port whilst an injection needle is in fluid communication with the cartridge and arranged to prevent establishing a fluid communication between an injection needle and the cartridge whilst the port is configured to allow contacting the electrical unit,
A boost pressure control method for a supercharger that drives a turbine by exhaust gas flowing through an exhaust passage of an internal combustion engine and supercharges air flowing through an intake passage to the internal combustion engine by a compressor coupled to the turbine, the boost pressure control method comprising: in the case where it is determined that the internal combustion engine is in an operation region to operate the compressor in a surge region, calculating a target turbine opening area (Areff) of the turbine for preventing compressor surge by using an arithmetic expression that is acquired by replacing the turbine with a physical model based on a throttle expression, by setting a target pressure ratio in accordance with an actual boost pressure and calculating a target turbine pressure from said target pressure ratio and the actual boost pressure, the target pressure ratio being a ratio of a pressure on an inlet side of the turbine to the actual boost pressure and being set to prevent the occurrence of the compressor surge, and by using the target turbine pressure as a desired turbine pressure on the inlet side of the turbine so as to calculate the target turbine opening area (Areff); and setting an opening of the turbine at an opening degree that corresponds to the target turbine opening area (Areff), so as to be able to prevent occurrence of the compressor surge in the compressor.
Portable vacuum cleaner with a suction channel opening into a suction nozzle and with a housing, a handle, a reservoir for the suction material, with an opening and a suction unit for generating a suction flow which provides a suction vacuum applied to the suction nozzle, with a separating unit, which is capable of separating the suction flow sucked in via the suction nozzle into an exhaust air flow flowing out of the vacuum cleaner and into suction material in the form of particles and/or fluid particles, the separated particles or fluid particles being collected in the reservoir for the suction material and the reservoir for the suction material being capable of being emptied by opening, characterized in that the housing is embodied in several parts with a first housing part, a second housing part and a third housing part, wherein a suction and separation region comprising the separating unit is housed and/or embodied by the first housing part, the second housing part is connected to the third housing part and the reservoir for the suction material is arranged between the second housing part and the third housing part and/or is formed by the second housing part and the third housing part, and wherein connecting regions of the first housing part, the second housing part and the third housing part are covered by a cover housing part.
A transmission control module (16, 54, 176) for a motor vehicle having an engine (42, 162) and a transmission (46, 170) coupled to the engine, the transmission control module being coupled to the transmission and including a processor (36, 177) and circuitry configured to: receive a turbine speed (TS, 26, 57, 181) from an automatic transmission (12, 46) of a motor vehicle, receive a vehicle speed (VS, 32) from the vehicle, characterized by the processor and circuitry further configured to: determine a desired transmission turbine acceleration limit (DTAL, 212) based on the transmission turbine speed and the vehicle speed, generate a transmission input torque limit (TITL, 38) based on the desired transmission turbine acceleration limit, and output the transmission input torque limit to the engine to manage acceleration of the vehicle. receive a turbine speed (TS, 26, 57, 181) from an automatic transmission (12, 46) of a motor vehicle, receive a vehicle speed (VS, 32) from the vehicle, characterized by the processor and circuitry further configured to: determine a desired transmission turbine acceleration limit (DTAL, 212) based on the transmission turbine speed and the vehicle speed, generate a transmission input torque limit (TITL, 38) based on the desired transmission turbine acceleration limit, and output the transmission input torque limit to the engine to manage acceleration of the vehicle. determine a desired transmission turbine acceleration limit (DTAL, 212) based on the transmission turbine speed and the vehicle speed, generate a transmission input torque limit (TITL, 38) based on the desired transmission turbine acceleration limit, and output the transmission input torque limit to the engine to manage acceleration of the vehicle.
A bumper beam having a substantially "eight"-shaped closed cross-section, the closed cross-section being formed by a single metal plate, wherein the metal plate comprises a plurality of projections formed along a first edge and a plurality of holes formed along a second opposite edge, characterized in that the bumper beam further comprises a plurality of central projections formed along a first central portion of the plate, a plurality of central holes formed along a second central portion of the plate and wherein the central projections engage with corresponding second edge holes and first edge projections engage with the corresponding central holes to retain the closed cross-section.
A transmission comprising a sensor bar supporting at least one sensor (6a, 6b) for measuring an operating parameter of the transmission, the sensor bar being provided with an oil channel for transportation of lubrication oil to at least one component of the transmission, characterized in that said at least one sensor (6a, 6b) is a speed sensor arranged for measuring the speed of a shaft or a gear wheel of the transmission or a position sensor arranged for measuring the position of a gear shifting fork or a sleeve of the transmission.
A method of controlling intermodulation interference, the method comprising: determining when transmissions from at least two transmitters are to overlap in time, each of the at least two transmitters assigned a separate transmit frequency; and characterized in that when transmissions from the at least two transmitters are to overlap in time: determining if an IM product spectrum, produced by the at least two transmitters, overlaps the spectrum of an assigned receive frequency; if the IM product spectrum overlaps the assigned receive frequency spectrum, determining if a signal is being propagated on the receive frequency when the transmissions from the at least two transmitters are to overlap in time; if a signal is not being propagated on the receive frequency, allowing the at least two transmitters to transmit the overlapping transmissions; and if a signal is being propagated on the receive frequency, initiating control steps to reduce the effects of IM interference. determining when transmissions from at least two transmitters are to overlap in time, each of the at least two transmitters assigned a separate transmit frequency; and characterized in that when transmissions from the at least two transmitters are to overlap in time: determining if an IM product spectrum, produced by the at least two transmitters, overlaps the spectrum of an assigned receive frequency; if the IM product spectrum overlaps the assigned receive frequency spectrum, determining if a signal is being propagated on the receive frequency when the transmissions from the at least two transmitters are to overlap in time; if a signal is not being propagated on the receive frequency, allowing the at least two transmitters to transmit the overlapping transmissions; and if a signal is being propagated on the receive frequency, initiating control steps to reduce the effects of IM interference.
Brake pad for a disc brake suitable for installation into a wheel, the brake pad comprising an annular segment-type backing plate, which supports a friction lining, and the inner radius (Ri) of which merges on both sides into straight contact surfaces, and which has on the rear side remote from the friction lining two moulded-on pressure pads arranged at a distance from one another, wherein the length of the backing plate is 205 - 220 mm, its inner radius (Ri) is 100 - 125 mm and its outer radius (Ra) is 185 - 200 mm, characterised in that the centre-to-centre distances of the pressure pads are greater by 3 - 15 mm than the area centres of gravity of the brake pad halves of the brake pad, which is mirror-symmetric relative to a radial central axis.
A supporting structure for the provisional support of railway tracks, comprising a plurality of horizontal metal beams (20, 20') and bearing devices, wherein said horizontal metal beams (20, 20') are adapted to be arranged parallel to the rails of the track, wherein said horizontal metal beams (20, 20') are supported by said bearing devices, in which two metal assemblies for supporting the respective rails are provided, each metal assembly comprising a plurality of metal cross saddles fastened to said metal beams (20, 20') in positions comprised between the positions of successive crossbars of the track along the entire length of the same beams, as well as means for the mutual fastening of the supporting metal assemblies for the rails, which comprise a plurality of metal plates, metal bolts, metal nuts, bushings of electrically insulating material and a plurality of metal fins, wherein said metal fins are fastened to said metal beams and are arranged in spaced apart and mutually corresponding positions along one side of each metal assembly, said metal plates and said metal fins being equipped with through holes in corresponding positions for the fastening through said metal bolts coupled to said metal nuts, characterised by comprising at least one plate of electrically insulating material, which is interposed between each of said metal plates and the corresponding metal fins fastened to said metal beams, and at least one of said bushings of electrically insulating material fitted on each of said metal bolts.
A continuous process for the preparation of -2-acetyloxypropionic acid comprising the following steps: a') distillation of water from an aqueous solution of lactic acid at a concentration comprised from 25 to 60% and replacement with acetic acid by an acetic acid stream, either in liquid or in vapour phase, a) acetylation of lactic acid in acetic acid with acetic anhydride, in the presence of a heterogeneous acid catalyst, b) recovery of the -2-acetyloxypropionic acid by distillation of acetic acid. a') distillation of water from an aqueous solution of lactic acid at a concentration comprised from 25 to 60% and replacement with acetic acid by an acetic acid stream, either in liquid or in vapour phase, a) acetylation of lactic acid in acetic acid with acetic anhydride, in the presence of a heterogeneous acid catalyst, b) recovery of the -2-acetyloxypropionic acid by distillation of acetic acid.
A bar for manufacturing a superconducting composite wire based on Nb3Sn, consisting of a copper case, ease, inside which there is a copper-bearing matrix, a tin-bearing rod is located in its center, around the rod there is a set of niobium-bearing rods in a copper-bearing shell, wherein the copper-bearing matrix is surrounded by a diffusion barrier, wherein each niobium-bearing rod is a composite containing a matrix made of niobium or its alloy, reinforced with Nb-Ti alloy fibers located at a distance to the border with the copper-bearing shell of at least one average size of the Nb-Ti alloy fiber, and the distance between fibers is at least one average size of the Nb-Ti alloy fiber.