mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (200, 102) comprising: a processor configured to determine, based on a parameter associated with system information, whether to transition the apparatus from an inactive state to a connected state to receive the system information; a transmitter configured to transmit information that initiates a transition of the apparatus from the inactive state to the connected state in response to determining to transition the apparatus from the inactive state to the connected state; and a receiver configured to receive the system information while the apparatus is in the connected state. a processor configured to determine, based on a parameter associated with system information, whether to transition the apparatus from an inactive state to a connected state to receive the system information; a transmitter configured to transmit information that initiates a transition of the apparatus from the inactive state to the connected state in response to determining to transition the apparatus from the inactive state to the connected state; and a receiver configured to receive the system information while the apparatus is in the connected state.
A vegan emulsion consisting of at least one vegetable oil, water and at least one vegetable auxiliary agent, characterized in that the emulsion is a multiple emulsion, wherein at least 90% of the emulsion droplets of the multiple emulsion have a diameter of 2-10 μm.
Operating device for accommodating a rotary selector switch for a domestic appliance, the operating device having at least the following features: - a holding portion; and - a rotary selector switch evaluation unit for evaluating at least one rotational position of the rotary selector switch, the rotary selector switch evaluation unit being designed to accommodate at least part of the rotary selector switch; characterised in that a connecting portion between the holding portion and the rotary selector switch evaluation unit is shaped so as to be at least partially flexible and is thereby suitable for compensating for a rotational axis deviation between the rotary selector switch and the coupled rotary selector switch evaluation unit. - a holding portion; and - a rotary selector switch evaluation unit for evaluating at least one rotational position of the rotary selector switch, the rotary selector switch evaluation unit being designed to accommodate at least part of the rotary selector switch;
A method of forming a seamless garment, comprising: applying a first adhesive on at least one of a side of a first textile and a side of a conformable expanded polytetrafluoroethylene (ePTFE) tape having an extensibility of at least 1.5X in at least one direction; positioning said textile on a garment mold; stretching said conformable ePTFE tape over said first textile and said garment mold to form a first composite comprising a conformed ePTFE membrane, said first adhesive, and said first textile; positioning a second composite comprising a second adhesive and a second textile on said first composite such that said second adhesive is positioned on said conformed ePTFE membrane to form a seamless garment; and heating said seamless garment and said garment mold to a temperature from about 50°C to about 200°C. applying a first adhesive on at least one of a side of a first textile and a side of a conformable expanded polytetrafluoroethylene (ePTFE) tape having an extensibility of at least 1.5X in at least one direction; positioning said textile on a garment mold; stretching said conformable ePTFE tape over said first textile and said garment mold to form a first composite comprising a conformed ePTFE membrane, said first adhesive, and said first textile; positioning a second composite comprising a second adhesive and a second textile on said first composite such that said second adhesive is positioned on said conformed ePTFE membrane to form a seamless garment; and heating said seamless garment and said garment mold to a temperature from about 50°C to about 200°C.
A press for hot forming and hardening sheet metal blanks of steel, with an upper part, which has an upper tool part, and a lower part, which has a lower tool part, which can be moved towards and away from each other in a press stroke direction, wherein a sheet metal blank to be processed is arranged between pressure surfaces (8, 8') of the tool parts (4, 6) during each press stroke in the closed position of the tool, wherein the sheet metal blank rests on the lower tool part or the pressure surface thereof and, in the closed position of the tool, is contacted by the upper tool part or the pressure surface thereof, wherein the press has a transport direction extending transversely to the press stroke direction, in which sheet metal blanks are transported through the press, the press having a plurality of tools following each other in the transport direction for simultaneous processing of a plurality of sheet metal blanks during each press stroke, the tools each having an upper tool part (4, 4a, 4b, 4c) held on the upper part and a lower tool part (6, 6a, 6b, 6c) held on the lower part, wherein at least two tools are arranged as hot forming tools and one tool, the last one in the transport direction, is arranged as a tool for press hardening of the sheet metal blanks, wherein the hot forming and the press hardening of the sheet metal blanks in the tools are carried out simultaneously during each press stroke, characterized in that at least the upper tool part of the last tool is held on the upper part by a spring and its pressure surface projects over the pressure surfaces (8, 8a, 8b) of the hot forming tools when the press is at least partially open, and the pressure surfaces (8', 8a', 8b', 8c') of the lower tool parts (6, 6a, 6b, 6c) are arranged at least approximately in alignment with each other, the closed position of the last tool being reached before the closed position of the hot forming tools is reached and being maintained under yielding of the spring and being maintained until all the hot forming tools are closed, the closed position of all tools being reached only when the press is completely closed, and in that the hot forming tools are opened when the press leaves the closed position, the last tool being opened only when the press reaches a defined open position, lagging behind the open position of the other tools.
A loading module configured to accommodate at least two vehicles, comprising a lower loading plate, which has a forward end and a rear end and is configured to receive a first vehicle (F 1), an upper loading plate, which has a forward end and a read end and is configured to receive a second vehicle (F 2), a front device, which is fixedly attached to the lower loading plate and extends upwardly from the lower loading plate and connects the lower loading plate with the upper loading plate, and two hydraulic cylinders (8, 9), which are provided on a respective side of the lower loading plate and the upper loading plate and arranged to enable displacement of the upper loading plate between a lower position, which permits movement of the second vehicle (F 2) to and from the upper loading plate, and an upper position, which permits movement of the first vehicle (F 1) to and from the lower loading plate, wherein the two hydraulic cylinders (8, 9) extend in a direction which together with the lower loading plate forms an acute angle (α) having the tip directed towards the forward end when the upper loading plate is located in the lower position and in the upper position, wherein each hydraulic cylinder (8, 9) is rotatably attached to the lower loading plate at a first attachment point and is rotatably attached to the upper loading plate at a second attachment point, characterized in that the loading module comprises a ramp which has a rear end and a forward end that is rotatably connected to the lower loading plate at the rear end of the lower loading plate, the ramp is rotatable between a lowered position and a raised position, the upper loading plate, when this is located in the upper position and the ramp is located in the raised position, rests against at least one support surface of the ramp, the at least one support surface comprises two projections provided at a respective side of the ramp in the proximity of, but at a distance from, the rear end, and the loading module forms a self-supporting unit to permit positioning of the loading module on a trailer or on the ground.
A sulfone compound represented by the following formula, wherein, in formula, R 1 represents a C6-C8 branched-chain alkyl group selected from the group consisting of ethylbutyl group, dimethylpentyl group, ethylpentyl group, trimethylbutyl group, ethylmethylbutyl group, methylheptyl group, dimethylhexyl group, ethylhexyl group, ethylmethylpentyl group, propylpentyl group, tetramethylbutyl group, ethyldimethylbutyl group, diethylbutyl group and propylmethylbutyl group.
A system for direct current nerve block, comprising: a direct current generator; a working electrode and a counter electrode; and a controller configured to cyclically apply direct current of a first polarity over a first duration, and direct current of a second polarity opposite the first polarity over a second duration, receive measurements of a peak voltage of the first polarity over the first duration and measurements of a peak voltage of the second polarity over the second duration; adjust the direct current by analyzing the peak voltages over the first duration and the second duration, and increase a current magnitude by a pre-determined amount up to a current limit if the measured peak voltage over the first duration and the second duration is below an absolute threshold limit; and decreasing the current magnitude by an amount if the measured peak voltage over the first duration or the second duration is above an absolute threshold limit. a direct current generator; a working electrode and a counter electrode; and a controller configured to cyclically apply direct current of a first polarity over a first duration, and direct current of a second polarity opposite the first polarity over a second duration, receive measurements of a peak voltage of the first polarity over the first duration and measurements of a peak voltage of the second polarity over the second duration; adjust the direct current by analyzing the peak voltages over the first duration and the second duration, and increase a current magnitude by a pre-determined amount up to a current limit if the measured peak voltage over the first duration and the second duration is below an absolute threshold limit; and decreasing the current magnitude by an amount if the measured peak voltage over the first duration or the second duration is above an absolute threshold limit.
A palatable, hard chewable tablet veterinary composition comprising: a. a therapeutically effective amount of a veterinary acceptable isoxazoline selected from the group consisting of sarolaner, lotilaner, afoxolaner, and fluralaner; b. a stabilized macrocyclic lactone selected from the group consisting of moxidectin, selamectin, ivermectin, abamectin, and milbemycin oxime, wherein the macrocyclic lactone is stabilized with hydroxypropylmethyl cellulose and meglumine; c. an acceptable salt form of pyrantel; d. at least one natural animal based palatant; and e. at least one veterinary acceptable excipient, wherein the hardness value of the tablet ranges from about 20N to about 500N. a. a therapeutically effective amount of a veterinary acceptable isoxazoline selected from the group consisting of sarolaner, lotilaner, afoxolaner, and fluralaner; b. a stabilized macrocyclic lactone selected from the group consisting of moxidectin, selamectin, ivermectin, abamectin, and milbemycin oxime, wherein the macrocyclic lactone is stabilized with hydroxypropylmethyl cellulose and meglumine; c. an acceptable salt form of pyrantel; d. at least one natural animal based palatant; and e. at least one veterinary acceptable excipient,
A data transmission method, wherein the method is used for a transmit end, and the method comprises: generating a physical layer protocol data unit, PPDU; and sending (202, 203) the PPDU to a plurality of receive ends, wherein the PPDU comprises a short training field, STF, and a target field in the STF comprises a plurality of basic elements sequentially arranged, a zero elements located between every two adjacent basic elements, and a zero elements located before or after the plurality of basic elements, wherein "a" in "a zero elements" represents quantity of zero elements and "a" ≥ 1; a plurality of consecutive elements in the plurality of basic elements form a Golay sequence, and the target field is transmitted on a subcarrier other than a guard subcarrier and a direct current subcarrier in a spectrum resource for transmitting the STF; the spectrum resource for transmitting the STF is divided into a plurality of subcarriers, and the plurality of subcarriers are allocated to the plurality of receive ends in a one-to-one correspondence; elements in the STF may also be divided into a plurality of segments of elements based on the division of subcarriers in the spectrum resource; the plurality of segments of elements are in a one-to-one correspondence with the plurality of subcarriers; and each segment of elements is transmitted to a receive end corresponding to the segment of elements on a subcarrier corresponding to the segment of elements. generating a physical layer protocol data unit, PPDU; and sending (202, 203) the PPDU to a plurality of receive ends, wherein the PPDU comprises a short training field, STF, and a target field in the STF comprises a plurality of basic elements sequentially arranged, a zero elements located between every two adjacent basic elements, and a zero elements located before or after the plurality of basic elements, wherein "a" in "a zero elements" represents quantity of zero elements and "a" ≥ 1; a plurality of consecutive elements in the plurality of basic elements form a Golay sequence, and the target field is transmitted on a subcarrier other than a guard subcarrier and a direct current subcarrier in a spectrum resource for transmitting the STF; the spectrum resource for transmitting the STF is divided into a plurality of subcarriers, and the plurality of subcarriers are allocated to the plurality of receive ends in a one-to-one correspondence; elements in the STF may also be divided into a plurality of segments of elements based on the division of subcarriers in the spectrum resource; the plurality of segments of elements are in a one-to-one correspondence with the plurality of subcarriers; and each segment of elements is transmitted to a receive end corresponding to the segment of elements on a subcarrier corresponding to the segment of elements.
Apparatus comprising a heating plate electrically powered by a power supply circuit comprising a thermostat equipped with a thermal circuit breaker, wherein the thermal circuit breaker comprises a switch held in a closed position by a transmission member in contact with the switch and with a fuse plug contained in a cavity of the heating plate, wherein the transmission member opposes the opening of the switch under the effect of return means, characterised in that the transmission member comprises at least one fuse element whose melting causes the opening of the switch under the effect of the return means.
An apparatus, comprising: a rename block configured to: receive a first load operation that specifies a plurality of data destination register operands and perform renaming on the first load operation; a scheduling block configured to: receive the renamed first load operation as two individual memory operations (251a, 251b) from the rename block, store the renamed first load operation in a single entry of a plurality of scheduling block entries (221a, 221b, 221c, 221d), and schedule the renamed first load operation as a single operation with a plurality of data destination register operands; and a memory operation block configured to: receive the scheduled renamed first load operation and atomically perform the first load operation across the plurality of data destination register operands, wherein the rename block is configured to perform renaming on the first load operation by treating each data register operand of the plurality of data register operands as an individual memory operation. a rename block configured to: receive a first load operation that specifies a plurality of data destination register operands and perform renaming on the first load operation; a scheduling block configured to: receive the renamed first load operation as two individual memory operations (251a, 251b) from the rename block, store the renamed first load operation in a single entry of a plurality of scheduling block entries (221a, 221b, 221c, 221d), and schedule the renamed first load operation as a single operation with a plurality of data destination register operands; and a memory operation block configured to: receive the scheduled renamed first load operation and atomically perform the first load operation across the plurality of data destination register operands,
A fluid ejection assembly comprising: a first substrate, a second substrate and a chamber layer; a fluid slot formed in the first substrate; a channel formed in the chamber layer disposed on top of the second substrate, wherein a bottom surface of the second substrate is adhered to a top surface of the first substrate; fluid feed holes (220A, 220B) formed between the fluid slot and the channel; a fluid ejection element at a first end of the channel; and a pump element at a second end of the channel to circulate fluid horizontally through the channel and vertically through the fluid feed holes (220A, 220B), characterized in that the fluid feed holes (220A, 220B) comprise: a first fluid feed hole adjacent to the fluid ejection element; and a second fluid feed hole adjacent to the pump element. a first substrate, a second substrate and a chamber layer; a fluid slot formed in the first substrate; a channel formed in the chamber layer disposed on top of the second substrate, wherein a bottom surface of the second substrate is adhered to a top surface of the first substrate; fluid feed holes (220A, 220B) formed between the fluid slot and the channel; a fluid ejection element at a first end of the channel; and a pump element at a second end of the channel to circulate fluid horizontally through the channel and vertically through the fluid feed holes (220A, 220B), characterized in that the fluid feed holes (220A, 220B) comprise: a first fluid feed hole adjacent to the fluid ejection element; and a second fluid feed hole adjacent to the pump element. a first fluid feed hole adjacent to the fluid ejection element; and a second fluid feed hole adjacent to the pump element.
. A method of determining the concentration of an analyte in a whole blood sample, the method comprising: flowing a whole blood sample through a microfluidic channel defined by an inner surface and wherein an optical fiber is used inside the microfluidic channel, wherein the whole blood surrounds the optical fiber as it flows through the microfluidic channel, and wherein the optical fiber is placed parallel to the central axis of the microfluidic channel such that the optical fiber is not in contact with the inner surface of the microfluidic channel, generating a cell-free plasma layer around the optical fiber, and a cell-free plasma layer formed along the inner surface of the microfluidic channel, using Fahraeus Effect, and a layer of red blood cells in between the cell-free plasma layers (302, 308); irradiating light into the optical fiber, thereby directing light at the plasma layer; capturing light reflected off of the plasma layer; and analyzing the reflected light to determine the concentration of the analyte. flowing a whole blood sample through a microfluidic channel defined by an inner surface and wherein an optical fiber is used inside the microfluidic channel, wherein the whole blood surrounds the optical fiber as it flows through the microfluidic channel, and wherein the optical fiber is placed parallel to the central axis of the microfluidic channel such that the optical fiber is not in contact with the inner surface of the microfluidic channel, generating a cell-free plasma layer around the optical fiber, and a cell-free plasma layer formed along the inner surface of the microfluidic channel, using Fahraeus Effect, and a layer of red blood cells in between the cell-free plasma layers (302, 308); irradiating light into the optical fiber, thereby directing light at the plasma layer; capturing light reflected off of the plasma layer; and analyzing the reflected light to determine the concentration of the analyte.
A method of producing a phosphate fertilizer, comprising: producing a first portion of the phosphate fertilizer comprising - adding a solid micronutrient to phosphoric acid in a heated, stirred acid tank to dissolve the micronutrient and produce an enriched acid, adding the enriched acid and liquid ammonia to a pipe cross reactor, and allowing the enriched acid and the ammonia to react to produce molten ammonium phosphate, wherein a ratio of ammonia to phosphoric acid (N/P) fed to the pipe cross reactor is in a range of 1.0 to 2.0; producing a second portion of the phosphate fertilizer comprising - adding a micronutrient to phosphoric acid in a heated, stirred acid tank to dissolve the micronutrient and produce an enriched acid, and combining ammonia and enriched acid in a pre-neutralizer to produce ammonium phosphate, wherein a ratio of ammonia to phosphoric acid to (N/P) fed to the preneutralizer is in a range of 0.3 to 0.8 when the ammonium phosphate comprises a mono-ammonium phosphate, and 1.1 to 1.7 when the ammonium phosphate comprises di-ammonium phosphate; and supplying both the first and second portions of the phosphate fertilizer to a granulator, wherein the second portion is 22 wt.% to 38 wt.% of the phosphate fertilizer, with the remainder being produced in the pipe cross reactor and the granulator, the molten first portion characterized by its cooling to form granules upon discharge of the pipe cross reactor. producing a first portion of the phosphate fertilizer comprising - adding a solid micronutrient to phosphoric acid in a heated, stirred acid tank to dissolve the micronutrient and produce an enriched acid, adding the enriched acid and liquid ammonia to a pipe cross reactor, and allowing the enriched acid and the ammonia to react to produce molten ammonium phosphate, wherein a ratio of ammonia to phosphoric acid (N/P) fed to the pipe cross reactor is in a range of 1.0 to 2.0; producing a second portion of the phosphate fertilizer comprising - adding a micronutrient to phosphoric acid in a heated, stirred acid tank to dissolve the micronutrient and produce an enriched acid, and combining ammonia and enriched acid in a pre-neutralizer to produce ammonium phosphate, wherein a ratio of ammonia to phosphoric acid to (N/P) fed to the preneutralizer is in a range of 0.3 to 0.8 when the ammonium phosphate comprises a mono-ammonium phosphate, and 1.1 to 1.7 when the ammonium phosphate comprises di-ammonium phosphate; and supplying both the first and second portions of the phosphate fertilizer to a granulator, wherein the second portion is 22 wt.% to 38 wt.% of the phosphate fertilizer, with the remainder being produced in the pipe cross reactor and the granulator, the molten first portion characterized by its cooling to form granules upon discharge of the pipe cross reactor.