mhurhangee/patent-ind-claim-en huggingface dataset:
A method of obtaining measurement values from a plurality of input channels, the method comprising: receiving, at a multiplexer device, a plurality of input signals representing respective measurement values from a corresponding plurality of input channels; and the multiplexer device alternately selecting between the plurality of input channels and processing the input signals to thereby generate a multiplexed output signal, wherein the multiplexed output signal includes a sequence of values representing respective measurement values for one or more of the input channels from which input signals were provided to the multiplexer device, characterized in that the multiplexer device when generating the multiplexed output signal encodes the measurement values for the plurality of input channels from which input signals were provided to the multiplexer device in such a manner that respective measurement values from different ones of the plurality of input channels can be identified directly from the multiplexed output signal. receiving, at a multiplexer device, a plurality of input signals representing respective measurement values from a corresponding plurality of input channels; and the multiplexer device alternately selecting between the plurality of input channels and processing the input signals to thereby generate a multiplexed output signal, wherein the multiplexed output signal includes a sequence of values representing respective measurement values for one or more of the input channels from which input signals were provided to the multiplexer device, characterized in that the multiplexer device when generating the multiplexed output signal encodes the measurement values for the plurality of input channels from which input signals were provided to the multiplexer device in such a manner that respective measurement values from different ones of the plurality of input channels can be identified directly from the multiplexed output signal.
A punch apparatus comprising: a body ; a drive unit disposed in the body and having a drive shaft that is displaced in an axial direction; a rod disposed at a predetermined angle of inclination with respect to a displacement direction of the drive shaft , the rod being disposed displaceably with respect to the body ; and a driving force transmission mechanism by which a driving force output by the drive unit is transmitted to the rod , wherein the driving force transmission mechanism comprises a power boosting mechanism having an inclined portion, which is inclined with respect to the displacement direction of the drive shaft , and the rod is pushed by the inclined portion under a driving action of the drive shaft , whereby the rod is displaced in the axial direction while boosting the driving force, wherein the inclined portion is constituted from a cam groove , which is formed in a block body connected to the drive shaft , and through which a roller connected to the rod is inserted, the cam groove having a first groove portion , which is inclined at an angle of inclination with respect to the displacement direction, and a second groove portion connected to the first groove portion and which is inclined at an angle of inclination greater than that of the first groove portion , wherein a stopper is disposed in the body on an axis of the rod at a position on an opposite side from the direction in which the rod is pushed, and wherein the stopper is a support roller. a body ; a drive unit disposed in the body and having a drive shaft that is displaced in an axial direction; a rod disposed at a predetermined angle of inclination with respect to a displacement direction of the drive shaft , the rod being disposed displaceably with respect to the body ; and a driving force transmission mechanism by which a driving force output by the drive unit is transmitted to the rod , wherein the driving force transmission mechanism comprises a power boosting mechanism having an inclined portion, which is inclined with respect to the displacement direction of the drive shaft , and the rod is pushed by the inclined portion under a driving action of the drive shaft , whereby the rod is displaced in the axial direction while boosting the driving force, wherein the inclined portion is constituted from a cam groove , which is formed in a block body connected to the drive shaft , and through which a roller connected to the rod is inserted, the cam groove having a first groove portion , which is inclined at an angle of inclination with respect to the displacement direction, and a second groove portion connected to the first groove portion and which is inclined at an angle of inclination greater than that of the first groove portion , wherein a stopper is disposed in the body on an axis of the rod at a position on an opposite side from the direction in which the rod is pushed, and wherein the stopper is a support roller.
A braking state switching control system, comprising: a deadhead return passage, wherein one end of the deadhead return passage is connected to a train pipe, and another end of the deadhead return deadhead return passage is connected to a brake air reservoir pipe; a main control passage, wherein one end of the main control passage is connected to the train pipe, and another end of the main control passage is connected to a main air pipe; and a control device, wherein the control device is configured to turn on and turn off the deadhead return passage and the main control passage, to: control, in a case that a locomotive is in a deadhead state, the deadhead return passage to be turned on and the main control passage to be turned off, whereby the train pipe charges the brake air reservoir pipe in reverse; control, in a case that the locomotive functions as a main control locomotive, the main control passage to be turned on and the deadhead return passage to be turned off, whereby the main air pipe charges the train pipe; and control, in a case that the locomotive is in a coupled state, both the deadhead return passage and the main control passage to be turned off. a deadhead return passage, wherein one end of the deadhead return passage is connected to a train pipe, and another end of the deadhead return deadhead return passage is connected to a brake air reservoir pipe; a main control passage, wherein one end of the main control passage is connected to the train pipe, and another end of the main control passage is connected to a main air pipe; and a control device, wherein the control device is configured to turn on and turn off the deadhead return passage and the main control passage, to: control, in a case that a locomotive is in a deadhead state, the deadhead return passage to be turned on and the main control passage to be turned off, whereby the train pipe charges the brake air reservoir pipe in reverse; control, in a case that the locomotive functions as a main control locomotive, the main control passage to be turned on and the deadhead return passage to be turned off, whereby the main air pipe charges the train pipe; and control, in a case that the locomotive is in a coupled state, both the deadhead return passage and the main control passage to be turned off. control, in a case that a locomotive is in a deadhead state, the deadhead return passage to be turned on and the main control passage to be turned off, whereby the train pipe charges the brake air reservoir pipe in reverse; control, in a case that the locomotive functions as a main control locomotive, the main control passage to be turned on and the deadhead return passage to be turned off, whereby the main air pipe charges the train pipe; and control, in a case that the locomotive is in a coupled state, both the deadhead return passage and the main control passage to be turned off.
A hydrogen sulfide sampler system for sampling for hydrogen sulfide in a fluid flow line , the system including: a main tank in fluid communication with a fluid sample inlet line and a fluid sample outlet line ; a plurality of sample bottles in fluid communication with the main tank by way of the fluid sample outlet line ; a drain tank in fluid communication with the main tank by way of the fluid sample outlet line ; a manifold assembly that includes the fluid sample outlet line , the manifold assembly located between the main tank and the drain tank and further located between the main tank and the plurality of sample bottles ; a return line in fluid communication with the drain tank ; an analysis system operable to analyze a composition of a sample fluid contained within the main tank , by analyzing the sample fluid at the main tank to obtain a hydrogen sulfide reading. a main tank in fluid communication with a fluid sample inlet line and a fluid sample outlet line ; a plurality of sample bottles in fluid communication with the main tank by way of the fluid sample outlet line ; a drain tank in fluid communication with the main tank by way of the fluid sample outlet line ; a manifold assembly that includes the fluid sample outlet line , the manifold assembly located between the main tank and the drain tank and further located between the main tank and the plurality of sample bottles ; a return line in fluid communication with the drain tank ; an analysis system operable to analyze a composition of a sample fluid contained within the main tank , by analyzing the sample fluid at the main tank to obtain a hydrogen sulfide reading.
A lubricant composition comprising as a lubricant base, a polyalkylene glycol at least 20% by weight of the total lubricant composition; and an additive at 0.25% to 2% by weight of the total composition, the additive comprising C 8 alkylated phenyl-α-naphthylamine; and a mixture of 1,2-dihydro-2,2,4-trimethylquinoline dimers and trimers; wherein components and are present at a weight ratio from 1:3 to 3:1 with the proviso that when the additive content is 0.25%, components and are present at a weight ratio from 1:1 to 3:1, and when the additive content is 2.0%, components and are present at a weight ratio from 1:3 to 1:1. C 8 alkylated phenyl-α-naphthylamine; and a mixture of 1,2-dihydro-2,2,4-trimethylquinoline dimers and trimers;
A method for controlling a single-coil brushless DC motor using a driving signal which generates a current through the coil of the brushless DC motor by an average voltage difference over the coil, the method characterized by : - monitoring a signal indicative of a time derivative of a phase current through the coil of the brushless DC motor during at least one commutation cycle, - determining a first moment of the at least one commutation cycle such that at the first moment the absolute value of the time derivative of the phase current is smaller than or equal to a slope threshold, - determining a start of a rising edge of the driving signal in a commutation cycle, based on the first moment of that commutation cycle and/or based on the first moment of at least one earlier commutation cycle, and/or determining a start of a falling edge of the driving signal in that commutation cycle based on the first moment of at least one earlier commutation cycle, and - driving the single-coil brushless DC motor using the driving signal defined by determining the start of the rising edge and/or the start of the falling edge. - monitoring a signal indicative of a time derivative of a phase current through the coil of the brushless DC motor during at least one commutation cycle, - determining a first moment of the at least one commutation cycle such that at the first moment the absolute value of the time derivative of the phase current is smaller than or equal to a slope threshold, - determining a start of a rising edge of the driving signal in a commutation cycle, based on the first moment of that commutation cycle and/or based on the first moment of at least one earlier commutation cycle, and/or determining a start of a falling edge of the driving signal in that commutation cycle based on the first moment of at least one earlier commutation cycle, and - driving the single-coil brushless DC motor using the driving signal defined by determining the start of the rising edge and/or the start of the falling edge.
A self-propelled working machine , which is chargeable by being connected to station , configured to work in a working area and detect its position with respect to an area wire , which is partitioning the working area, comprising: - a traveling unit , - a traveling control unit configured to control the traveling unit , - a detection unit configured to detect the station and the area wire , - an information acquisition unit , and - a memory , characterized in that the information acquisition unit is configured to acquire input information, which is input by a user and stored in the memory , indicating an installation mode of the station , which includes a position and an orientation of the station within the working area and a shape of the working area near the station , and the traveling control unit is configured to set a control parameter of the traveling unit , based on the input information and the detection value of the area wire obtained by the detection unit , in response to detection of the station by the detection unit , wherein said control parameter includes parameters for deciding a proper traveling route to cause the working machine to come close to the station . - a traveling unit , - a traveling control unit configured to control the traveling unit , - a detection unit configured to detect the station and the area wire , - an information acquisition unit , and - a memory , characterized in that the information acquisition unit is configured to acquire input information, which is input by a user and stored in the memory , indicating an installation mode of the station , which includes a position and an orientation of the station within the working area and a shape of the working area near the station , and the traveling control unit is configured to set a control parameter of the traveling unit , based on the input information and the detection value of the area wire obtained by the detection unit , in response to detection of the station by the detection unit , wherein said control parameter includes parameters for deciding a proper traveling route to cause the working machine to come close to the station . characterized in that the information acquisition unit is configured to acquire input information, which is input by a user and stored in the memory , indicating an installation mode of the station , which includes a position and an orientation of the station within the working area and a shape of the working area near the station , and a position and an orientation of the station within the working area and a shape of the working area near the station , and the traveling control unit is configured to set a control parameter of the traveling unit , based on the input information and the detection value of the area wire obtained by the detection unit , in response to detection of the station by the detection unit , wherein said control parameter includes parameters for deciding a proper traveling route to cause the working machine to come close to the station .
A method of operating a rotorcraft , the method comprising: receiving a measured yaw rate from a yaw rate sensor or a measured lateral acceleration from a lateral acceleration sensor of the rotorcraft; regulating a yaw rate or a lateral acceleration of the rotorcraft based on a filtered measured yaw rate or a filtered measured lateral acceleration by providing an actuator signal to a tail rotor of the rotorcraft , the actuator signal controlling the pitch of the blades ; characterized by filtering the measured yaw rate or the measured lateral acceleration using an aeroservoelastic filter and a lateral shuffle filter to form the filtered measured yaw rate or filtered measured lateral acceleration, wherein the lateral shuffle filter comprises a bandpass characteristic or a notch characteristic, and the filtering of the lateral shuffle filter is configured to reduce lateral vibrations caused by airflow in a tail section of the rotorcraft and the filtering of the aeroservoelastic filter is configured to prevent excitation of structural modes, and whereby the frequency of the passband or stopband of the lateral shuffle filter is configured to be at a different frequency from the frequencies of the structural modes targeted by the aeroservoelastic filter. receiving a measured yaw rate from a yaw rate sensor or a measured lateral acceleration from a lateral acceleration sensor of the rotorcraft; regulating a yaw rate or a lateral acceleration of the rotorcraft based on a filtered measured yaw rate or a filtered measured lateral acceleration by providing an actuator signal to a tail rotor of the rotorcraft , the actuator signal controlling the pitch of the blades ; characterized by filtering the measured yaw rate or the measured lateral acceleration using an aeroservoelastic filter and a lateral shuffle filter to form the filtered measured yaw rate or filtered measured lateral acceleration, wherein the lateral shuffle filter comprises a bandpass characteristic or a notch characteristic, and the filtering of the lateral shuffle filter is configured to reduce lateral vibrations caused by airflow in a tail section of the rotorcraft and the filtering of the aeroservoelastic filter is configured to prevent excitation of structural modes, and whereby the frequency of the passband or stopband of the lateral shuffle filter is configured to be at a different frequency from the frequencies of the structural modes targeted by the aeroservoelastic filter.
A system for thermotherapy treatment or prevention of antimicrobial resistant or biofilm infections, the system comprising: - a support configured to receive a nanoparticle assembly (NPA) and configured to be conveyed towards a localized area of an organism infected or at risk to be infected by microorganisms; - said nanoparticle assembly (NPA) comprising a plurality of nanoparticles (NPs) each one (NP) having a silver core and a surface surrounding said silver core, wherein the silver core is reactable to thermal energy; and wherein the nanoparticles have attached on the surface at least the antimicrobial agent amikacin and wherein the surface of each nanoparticle (NP) comprises a mPEG covering; - an energy unit configured to apply at least one thermal shot on said localized area exposed to the nanoparticle assembly, increasing the temperature of said localized area to a given value via the nanoparticle assembly (NPA), so enabling a nanotheranostic multimodal antimicrobial therapy. - a support configured to receive a nanoparticle assembly (NPA) and configured to be conveyed towards a localized area of an organism infected or at risk to be infected by microorganisms; - said nanoparticle assembly (NPA) comprising a plurality of nanoparticles (NPs) each one (NP) having a silver core and a surface surrounding said silver core, wherein the silver core is reactable to thermal energy; and wherein the nanoparticles have attached on the surface at least the antimicrobial agent amikacin and wherein the surface of each nanoparticle (NP) comprises a mPEG covering; - an energy unit configured to apply at least one thermal shot on said localized area exposed to the nanoparticle assembly, increasing the temperature of said localized area to a given value via the nanoparticle assembly (NPA), so enabling a nanotheranostic multimodal antimicrobial therapy.
A method of forming a memory device, comprising: providing a memory cell stack adjacent an insulating material , the memory cell stack comprising an electrode material ; forming a blanket seeding material in contact with and across the electrode material and the insulating material; forming a blanket metal comprising tungsten on the blanket seeding material , the blanket metal having a resistivity depending on a grain size distribution of the metal, the resistivity likewise based at least in part on a thickness of the blanket seeding material ; and patterning the blanket metal , the blanket seeding material , and the insulating material by etching to form a conductive access line. providing a memory cell stack adjacent an insulating material , the memory cell stack comprising an electrode material ; forming a blanket seeding material in contact with and across the electrode material and the insulating material; forming a blanket metal comprising tungsten on the blanket seeding material , the blanket metal having a resistivity depending on a grain size distribution of the metal, the resistivity likewise based at least in part on a thickness of the blanket seeding material ; and patterning the blanket metal , the blanket seeding material , and the insulating material by etching to form a conductive access line.
An automatic analyzer configured to dispense a sample and a reagent to each of a plurality of reaction containers to react the sample and the reagent, the automatic analyzer configured to measure a liquid that has reacted, the automatic analyzer comprising: a reagent disk configured to store a reagent bottle that has housed the reagent; a reagent mounting unit configured to be provided with the reagent bottle in loading the reagent bottle into the automatic analyzer; and a reagent conveying unit configured to convey the reagent bottle, characterised in that the reagent conveying unit is configured to convey the reagent bottle that has been provided to the reagent mounting unit , into the reagent disk and includes a gripper unit that holds the reagent bottle and a reagent bottle lid opening unit that is configured to make a hole in a lid of the reagent bottle, wherein a gripper unit and reagent bottle lid opening unit drive unit is configured to coordinate and drive the gripper unit and the reagent bottle lid opening unit in the reagent conveying unit , so that when the reagent bottle lid opening unit moves in an upper or lower direction, the gripper unit simultaneously moves in the lower or upper direction reversely to the reagent bottle lid opening unit . a reagent disk configured to store a reagent bottle that has housed the reagent; a reagent mounting unit configured to be provided with the reagent bottle in loading the reagent bottle into the automatic analyzer; and a reagent conveying unit configured to convey the reagent bottle, characterised in that the reagent conveying unit is configured to convey the reagent bottle that has been provided to the reagent mounting unit , into the reagent disk and includes a gripper unit that holds the reagent bottle and a reagent bottle lid opening unit that is configured to make a hole in a lid of the reagent bottle, wherein a gripper unit and reagent bottle lid opening unit drive unit is configured to coordinate and drive the gripper unit and the reagent bottle lid opening unit in the reagent conveying unit , so that when the reagent bottle lid opening unit moves in an upper or lower direction, the gripper unit simultaneously moves in the lower or upper direction reversely to the reagent bottle lid opening unit .