mhurhangee/ep-ind-claims huggingface dataset:
A thermal flow meter which is provided with a heating element and a temperature controlling bridge circuit that is formed of a plurality of resistors and controls the temperature of the heating element to detect a flow rate of a fluid, wherein at least one balance adjusting resistor is part of the temperature controlling bridge circuit, the thermal flow meter further comprising: a tapped adjusting resistor connected in parallel with the least one balance adjusting resistor by two wires drawn from both ends of the at least one balance adjusting resistor, the thermal flow meter characterized by comprising: a voltage detection circuit that detects that the magnitude of voltage produced between the two wires has become smaller than a first predetermined value; and a fault signal output circuit (20,26) that, when the magnitude of the voltage is detected to become smaller than the first predetermined value at the voltage detection circuit, outputs a signal indicating a fault. a tapped adjusting resistor connected in parallel with the least one balance adjusting resistor by two wires drawn from both ends of the at least one balance adjusting resistor, the thermal flow meter characterized by comprising: a voltage detection circuit that detects that the magnitude of voltage produced between the two wires has become smaller than a first predetermined value; and a fault signal output circuit (20,26) that, when the magnitude of the voltage is detected to become smaller than the first predetermined value at the voltage detection circuit, outputs a signal indicating a fault. a voltage detection circuit that detects that the magnitude of voltage produced between the two wires has become smaller than a first predetermined value; and a fault signal output circuit (20,26) that, when the magnitude of the voltage is detected to become smaller than the first predetermined value at the voltage detection circuit, outputs a signal indicating a fault.
An interference cancellation method, wherein the method comprises: sending, by a first device, a first signal to a second device, wherein the first signal comprises a first transmit signal and a first pilot signal, the first transmit signal generates a first self-interference signal to a receive end of the first device, the first transmit signal and the first pilot signal use different frequency bands, and the first device and the second device are connected via an intermediate frequency cable and together form a microwave transmission system; obtaining, by the first device, a second signal, wherein the second signal comprises the first self-interference signal, a second pilot signal, and a second receive signal from the second device, the second pilot signal is a pilot signal obtained after the first pilot signal undergoes a channel jitter, frequency bands used by the first transmit signal and the second receive signal completely or partially overlap, and the second receive signal and the second pilot signal use different frequency bands; extracting, by the first device, jitter information of the first self-interference signal based on the first pilot signal and the second pilot signal; reconstructing, by the first device, a self-interference signal based on the first transmit signal and the jitter information of the first self-interference signal, to obtain a cancellation signal of the first self-interference signal; and canceling, by the first device, the first self-interference signal from the second receive signal based on the cancellation signal of the first self-interference signal. sending, by a first device, a first signal to a second device, wherein the first signal comprises a first transmit signal and a first pilot signal, the first transmit signal generates a first self-interference signal to a receive end of the first device, the first transmit signal and the first pilot signal use different frequency bands, and the first device and the second device are connected via an intermediate frequency cable and together form a microwave transmission system; obtaining, by the first device, a second signal, wherein the second signal comprises the first self-interference signal, a second pilot signal, and a second receive signal from the second device, the second pilot signal is a pilot signal obtained after the first pilot signal undergoes a channel jitter, frequency bands used by the first transmit signal and the second receive signal completely or partially overlap, and the second receive signal and the second pilot signal use different frequency bands; extracting, by the first device, jitter information of the first self-interference signal based on the first pilot signal and the second pilot signal; reconstructing, by the first device, a self-interference signal based on the first transmit signal and the jitter information of the first self-interference signal, to obtain a cancellation signal of the first self-interference signal; and canceling, by the first device, the first self-interference signal from the second receive signal based on the cancellation signal of the first self-interference signal.
A test apparatus configured to test a semiconductor device, the semiconductor device comprising an integrated circuit and a plurality of external radiating elements at a surface of the device, the radiating elements including at least one transmit element and at least one receive element, the test apparatus comprising: a plunger comprising: a dielectric portion having a surface for placing against said surface of the device; and at least one waveguide (52, 62, 64, 66), wherein each waveguide extends through the plunger to route electromagnetic radiation transmitted by one of said transmit elements of the device to one or more of the receive elements of the device, wherein each waveguide comprises a plurality of waveguide openings for coupling electromagnetically to corresponding radiating elements of the plurality of radiating elements located at the surface of the device, wherein the dielectric portion is configured to provide a matched interface for said electromagnetic coupling of the plurality of waveguide openings of the plunger to the plurality of radiating elements of the device; characterised in that at least one of the waveguides is configured to route electromagnetic radiation transmitted by one of said transmit elements of the device to a plurality of receive elements of the device, wherein said waveguide comprises: a first branch for conveying electromagnetic radiation transmitted by said transmit element; and at least two further branches (64B, 64C) coupled to the first branch for routing said electromagnetic radiation to said plurality of receive elements. a dielectric portion having a surface for placing against said surface of the device; and at least one waveguide (52, 62, 64, 66), wherein each waveguide extends through the plunger to route electromagnetic radiation transmitted by one of said transmit elements of the device to one or more of the receive elements of the device, wherein each waveguide comprises a plurality of waveguide openings for coupling electromagnetically to corresponding radiating elements of the plurality of radiating elements located at the surface of the device,
A method of making a lift and pull tool for a gas turbine engine, the method comprising: creating a computer file defining the tool in layers, the tool comprising: a cylindrical body having a first end and a second end; and a plurality of dogleg slots at the second end of the tool; wherein the tool includes at least one of the following features: a substantially square dogleg inner end corner, an angled dogleg inlet, and an integral mounting point on or proximate to the first end of the body; and building the tool using an additive manufacturing process that builds the tool on a layer-by-layer basis from the first end to the second end, and characterized by the plurality of dogleg slots being located inside the cylindrical body and comprising a substantially completely cylindrical dogleg surface. creating a computer file defining the tool in layers, the tool comprising: a cylindrical body having a first end and a second end; and a plurality of dogleg slots at the second end of the tool; wherein the tool includes at least one of the following features: a substantially square dogleg inner end corner, an angled dogleg inlet, and an integral mounting point on or proximate to the first end of the body; and a cylindrical body having a first end and a second end; and a plurality of dogleg slots at the second end of the tool; wherein the tool includes at least one of the following features: a substantially square dogleg inner end corner, an angled dogleg inlet, and an integral mounting point on or proximate to the first end of the body; and building the tool using an additive manufacturing process that builds the tool on a layer-by-layer basis from the first end to the second end, and characterized by the plurality of dogleg slots being located inside the cylindrical body and comprising a substantially completely cylindrical dogleg surface.
A method for retention time alignment in chromatographic systems, comprising: running a first sample through a separation column; determining a first set of retention times for the first sample run; running a second sample through a separation column; determining a second set of retention times for the second sample run; estimating a systematic shift in peaks between the first sample run and the second sample run by identifying a match for each of the peaks from the first sample run with each of the peaks from the second run using a relatively wide tolerance window, and running a regression analysis for estimating the systematic shift based on the shifts of each of the matched peaks from the first sample run to the second sample run; adjusting the second set of retention times detected for the second sample run based on the estimated systematic shift; and correlating the peaks in the first sample run with adjusted peaks in the second sample run based on a narrower tolerance window than previously used. running a first sample through a separation column; determining a first set of retention times for the first sample run; running a second sample through a separation column; determining a second set of retention times for the second sample run; estimating a systematic shift in peaks between the first sample run and the second sample run by identifying a match for each of the peaks from the first sample run with each of the peaks from the second run using a relatively wide tolerance window, and running a regression analysis for estimating the systematic shift based on the shifts of each of the matched peaks from the first sample run to the second sample run; adjusting the second set of retention times detected for the second sample run based on the estimated systematic shift; and correlating the peaks in the first sample run with adjusted peaks in the second sample run based on a narrower tolerance window than previously used.
Suction appliance, comprising an appliance body (12; 312), a blower device for generating a suction flow, a battery device with at least one battery unit (122; 124) for providing electrical energy, and at least one receptacle (126, 128; 222, 224; 296, 298; 330) for a battery unit (122; 124), which is arranged on the appliance body (12; 312), wherein the at least one receptacle (126, 128; 222, 224; 296, 298; 330) comprises a chamber (380; 226), in that a movable closure (398; 230; 262; 282; 350) is arranged on the chamber (380; 226), wherein the closure (398; 230; 262; 282; 350) has a first position (408; 232; 358), in which the chamber (380; 226) is closed by the closure (398; 230; 262; 282; 350), and a second position when the battery unit (122; 124) is electrically-operatively positioned on the at least one receptacle (126, 128; 222, 224; 296, 298; 330), characterized in that the closure (398; 230; 262; 282; 350) is arranged and configured such that the closure (398; 230; 262; 282; 350) automatically goes from the second position into the first position (408; 232; 358) when the battery unit (122; 124) is removed from the at least one receptacle (126, 128; 222, 224; 296, 298; 330), and the closure (398; 230; 262; 282; 350) automatically goes from the first position (408; 232; 358) into the second position when the battery unit (122; 124) is inserted into the at least one receptacle (126, 128; 222, 224; 296, 298; 330).
A method for identifying one or more access points in one or more channels to facilitate communication, comprising: identifying an access point in a channel in a first channel band of a first frequency range to facilitate communication with a network, the first channel band comprising a plurality of channels and the first frequency range comprising a plurality of channel bands; communicating with the network using the identified access point; maintaining a plurality of priority lists comprising: a first priority list comprising known channels of the first frequency range, the known channels previously identified by a node as being used by at least one access point; a second priority list comprising unknown channels of the first frequency range, the unknown channels not previously identified by the node as being used by at least one access point; a third priority list comprising unknown channels outside the first frequency range; and initiating a scanning sequence to identify one or more access points in one or more channels to facilitate communication, wherein initiating a scanning sequence comprises: conducting maintenance scanning of the first priority list; and conducting discovery scanning of the second and third priority lists; wherein the maintenance scanning is conducted more often than the discovery scanning. identifying an access point in a channel in a first channel band of a first frequency range to facilitate communication with a network, the first channel band comprising a plurality of channels and the first frequency range comprising a plurality of channel bands; communicating with the network using the identified access point; maintaining a plurality of priority lists comprising: a first priority list comprising known channels of the first frequency range, the known channels previously identified by a node as being used by at least one access point; a second priority list comprising unknown channels of the first frequency range, the unknown channels not previously identified by the node as being used by at least one access point; a third priority list comprising unknown channels outside the first frequency range; and a first priority list comprising known channels of the first frequency range, the known channels previously identified by a node as being used by at least one access point; a second priority list comprising unknown channels of the first frequency range, the unknown channels not previously identified by the node as being used by at least one access point; a third priority list comprising unknown channels outside the first frequency range; and initiating a scanning sequence to identify one or more access points in one or more channels to facilitate communication, wherein initiating a scanning sequence comprises: conducting maintenance scanning of the first priority list; and conducting discovery scanning of the second and third priority lists; wherein the maintenance scanning is conducted more often than the discovery scanning. conducting maintenance scanning of the first priority list; and conducting discovery scanning of the second and third priority lists;
A sound processor for a prosthetic hearing implant comprising: a plurality of filters (312, 612) that each produce an output from a sound signal; frequency selecting means; and a time delay generator; the frequency selecting means is configured to analyze the outputs from the plurality of filters and, based on the analysis, select a desired filter (312m, 602) from amongst the plurality of filters (312, 612) and, based on the desired filter, select an adjacent filter (312n, 604) from amongst the plurality of filters (312, 612) that is adjacent to the selected desired filter (312m, 602); and characterized in that the timing delay generator is configured to determine a time delay according to which a first stimulation signal based on the output of the desired filter (312m, 602) is applied subsequently relative to earlier application of a second stimulation signal for stimulating a stimulation site corresponding to the adjacent filter (312n, 604). a plurality of filters (312, 612) that each produce an output from a sound signal; frequency selecting means; and a time delay generator; the frequency selecting means is configured to analyze the outputs from the plurality of filters and, based on the analysis, select a desired filter (312m, 602) from amongst the plurality of filters (312, 612) and, based on the desired filter, select an adjacent filter (312n, 604) from amongst the plurality of filters (312, 612) that is adjacent to the selected desired filter (312m, 602); and
A method for receiving, at a receiver, a partial retransmission from a sender, the method comprising: receiving a control information message indicating a transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a subset of code blocks of a previously transmitted transport block; receiving the transmission comprising the retransmitted data; determining symbol locations within the TTI of the transmission occupied by the subset of code blocks, based on a mapping of the subset of code blocks to symbol locations, in which mapping each code block of the subset is distributed over at least two non-contiguous symbols of the plurality of symbols of the TTI; and decoding the retransmitted data at the determined symbol locations. receiving a control information message indicating a transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a subset of code blocks of a previously transmitted transport block; receiving the transmission comprising the retransmitted data; determining symbol locations within the TTI of the transmission occupied by the subset of code blocks, based on a mapping of the subset of code blocks to symbol locations, in which mapping each code block of the subset is distributed over at least two non-contiguous symbols of the plurality of symbols of the TTI; and decoding the retransmitted data at the determined symbol locations.
An entertainment system for an amusement park, comprising: a cylinder disposed within a body of liquid; an entertainment platform disposed within the cylinder, wherein the entertainment platform is configured to move axially within the cylinder; and a pump system configured to remove fluid from and provide fluid to an interior of the cylinder on a first side of the entertainment platform to move the entertainment platform within the cylinder. a cylinder disposed within a body of liquid; an entertainment platform disposed within the cylinder, wherein the entertainment platform is configured to move axially within the cylinder; and a pump system configured to remove fluid from and provide fluid to an interior of the cylinder on a first side of the entertainment platform to move the entertainment platform within the cylinder.
An injection molding apparatus comprising: a heated manifold that receives an injection fluid material from an injection molding machine, the heated manifold routing the injection fluid to a fluid delivery channel that extends and delivers the injection fluid material under an injection pressure to a gate of a mold cavity, one or more fluid driven actuators (210a, 210b) each interconnected to a corresponding valve pin (211a, 211b) mounted for reciprocal upstream-downstream driven movement through a flow channel leading to a downstream terminal gate that communicates with the mold cavity, a housing comprised of one or more metal plates (202a, 202b, 204a, 204b, 206) arranged to form a manifold chamber bounded by the one or more metal plates within which the heated manifold is mounted, wherein each of the fluid driven actuators (210a, 210b) is mounted within the manifold chamber, each fluid driven actuator is fluid drive interconnected to a proportional control valve (213a, 213b, 213c), each proportional control valve is mounted within the manifold chamber, each fluid driven actuator (210a, 210b) is interconnected to a source of pressurized fluid via a fluid distribution manifold. a heated manifold that receives an injection fluid material from an injection molding machine, the heated manifold routing the injection fluid to a fluid delivery channel that extends and delivers the injection fluid material under an injection pressure to a gate of a mold cavity, one or more fluid driven actuators (210a, 210b) each interconnected to a corresponding valve pin (211a, 211b) mounted for reciprocal upstream-downstream driven movement through a flow channel leading to a downstream terminal gate that communicates with the mold cavity, a housing comprised of one or more metal plates (202a, 202b, 204a, 204b, 206) arranged to form a manifold chamber bounded by the one or more metal plates within which the heated manifold is mounted, wherein each of the fluid driven actuators (210a, 210b) is mounted within the manifold chamber, each fluid driven actuator is fluid drive interconnected to a proportional control valve (213a, 213b, 213c), each proportional control valve is mounted within the manifold chamber, each fluid driven actuator (210a, 210b) is interconnected to a source of pressurized fluid via a fluid distribution manifold.
A method of dyeing a component of an article of footwear, the component comprising a polyurethane material, the method comprising contacting the polyurethane material with an aqueous dye solution, the aqueous dye solution comprising an acid dye compound and a quaternary ammonium compound selected from soluble tetrabutylammonium compounds and tetrahexylammonium compounds, the aqueous dye solution further comprising a water-soluble organic solvent, wherein the water-soluble organic solvent fully dissolves or is fully miscible in water at 20°C and 1 atm. pressure at the concentration in the aqueous dye solution and the aqueous dye solution is prepared by dissolving the acid dye compound in water and the water-soluble organic solvent, then adding the quaternary ammonium compound.
A Magainin derivative and pharmaceutically acceptable salts produced thereof, wherein the said derivative having the amino acid sequence of Gly-Ile-Gly-Lys-Phe-Leu-His-Ser-Ala-Lys-Lys-Phe-Gly-Lys-Ala-Phe-Val-Gly-Glu-Ile-X-Asn-Ser-Arg, wherein X is an amino acid residue selected from the group consisting of Ile and Leu.