mhurhangee/ep-ind-claims huggingface dataset:
A system for controlling movement of an actuator, comprising: an input power source that provides an input pulse width modulation signal (PWM signal); a motor driver that receives the PWM signal and provides a synthesized three-phase drive signal; a brushless direct current motor (BLDC motor) that receives the drive signal and operates in response to the received drive signal to reposition the actuator; characterized by a controller that receives the PWM signal, the controller, comprising: an amplitude detection module (110A; 110B) that detects the amplitude of the PWM signal, and a direction detection module that detects, without any sensor input, the polarity of the PWM signal; and a motor output shaft position monitor that provides output shaft position information to modify the PWM signal. an input power source that provides an input pulse width modulation signal (PWM signal); a motor driver that receives the PWM signal and provides a synthesized three-phase drive signal; a brushless direct current motor (BLDC motor) that receives the drive signal and operates in response to the received drive signal to reposition the actuator; characterized by a controller that receives the PWM signal, the controller, comprising: an amplitude detection module (110A; 110B) that detects the amplitude of the PWM signal, and a direction detection module that detects, without any sensor input, the polarity of the PWM signal; and a motor output shaft position monitor that provides output shaft position information to modify the PWM signal. an amplitude detection module (110A; 110B) that detects the amplitude of the PWM signal, and a direction detection module that detects, without any sensor input, the polarity of the PWM signal; and a motor output shaft position monitor that provides output shaft position information to modify the PWM signal.
An isolated variant alpha-amylase, comprising a substitution at three or more positions corresponding to any of positions 59, 89, 91, 96, 108, 112, 129, 157, 165, 166, 168, 171, 177, 179, 180, 181, 184, 208, 220, 224, 242, 254, 269, 270, 274, 276, 281, 284, 416, and 427, wherein the variant has at least 95% and less than 100% sequence identity with the mature polypeptide of SEQ ID NO: 6, and the variant has alpha-amylase activity, and wherein the variant comprises a set of substitutions, using SEQ ID NO: 1 for numbering, selected from the group consisting of: V59A+Q89R+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S; V59A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S; V59A+Q89R+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S+M284V; V59A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S+M284V; V59A+Q89R+G108A+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S+M284V; and V59A+G108A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S+M284V and wherein the I181*+G182*+N193F alterations present in SEQ ID NO: 6 are maintained and the variants have improved thermostability compared to the alpha-amylase disclosed as SEQ ID NO: 6. V59A+Q89R+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S; V59A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S; V59A+Q89R+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S+M284V; V59A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S+M284V; V59A+Q89R+G108A+E129V+K177L+R179E+H208Y+K220P+N224L+Q254S+M284V; and V59A+G108A+E129V+K177L+R179E+H208Y+K220P+N224L+S242Q+Q254S+M284V
A brake control device of a vehicle, the vehicle including a wheel, a brake mechanism that applies braking force to the wheel, a drive source that drives the wheel, and a braking force adjustment mechanism that adjusts the braking force to be applied to the wheel, the brake control device comprising: a detection unit configured to detect an ON operation for turning power of the vehicle on and an OFF operation for turning the power off, the ON operation and the OFF operation each being executed via a first operation input unit provided on the vehicle, and an actuation operation for actuating the drive source and a stop operation for stopping actuation of the drive source, the actuation operation and the stop operation each being executed via a second operation input unit provided on the vehicle separately from the first operation input unit; and a control unit configured to selectively execute, by controlling the braking force adjustment mechanism, either antilock control for suppressing lock of the wheel or antilock reduction control for reducing a suppression degree of lock of the wheel more than that in the antilock control, wherein the control unit executes the antilock control by switching over from the antilock reduction control when the stop operation is detected during execution of the antilock reduction control, the drive source stops, and the vehicle stops. a detection unit configured to detect an ON operation for turning power of the vehicle on and an OFF operation for turning the power off, the ON operation and the OFF operation each being executed via a first operation input unit provided on the vehicle, and an actuation operation for actuating the drive source and a stop operation for stopping actuation of the drive source, the actuation operation and the stop operation each being executed via a second operation input unit provided on the vehicle separately from the first operation input unit; and an ON operation for turning power of the vehicle on and an OFF operation for turning the power off, the ON operation and the OFF operation each being executed via a first operation input unit provided on the vehicle, and an actuation operation for actuating the drive source and a stop operation for stopping actuation of the drive source, the actuation operation and the stop operation each being executed via a second operation input unit provided on the vehicle separately from the first operation input unit; and a control unit configured to selectively execute, by controlling the braking force adjustment mechanism, either antilock control for suppressing lock of the wheel or antilock reduction control for reducing a suppression degree of lock of the wheel more than that in the antilock control, wherein the control unit executes the antilock control by switching over from the antilock reduction control when the stop operation is detected during execution of the antilock reduction control, the drive source stops, and the vehicle stops.
An explosion-proof electronic system, comprising: a substantially explosion-proof enclosure; a disk that is free to rotate about an axis, where the disk is located within the enclosure, wherein the disk comprises a magnetically responsive component configured to be moved remotely by interaction with an external magnet; an optical sensor that is configured to sense rotation of the disk, where the optical sensor is located within the enclosure; and a processor that is coupled to the optical sensor and analyzes a rotation input from the optical sensor to control in part the operation of the electronic system. a substantially explosion-proof enclosure; a disk that is free to rotate about an axis, where the disk is located within the enclosure, wherein the disk comprises a magnetically responsive component configured to be moved remotely by interaction with an external magnet; an optical sensor that is configured to sense rotation of the disk, where the optical sensor is located within the enclosure; and a processor that is coupled to the optical sensor and analyzes a rotation input from the optical sensor to control in part the operation of the electronic system.
An agent, which is a surface treatment agent representing an aqueous emulsion comprising: a fluorine-free copolymer comprising: - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, a surface-active agent comprising a nonionic surface-active agent, and a liquid medium comprising water. a fluorine-free copolymer comprising: - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, - a first polymer formed from a first monomer which comprises (a) a long-chain acrylate ester monomer of the formula CH 2 =CA 11 -C(=O)-O-A 12 wherein A 11 is H, Cl, Br, I, CN, linear or branched C 1-21 -alkyl, optionally substituted benzyl or optionally substituted phenyl, and A 12 is a linear or branched C 18-30 -hydrocarbon group, the first monomer does not comprise (b) a halogenated olefin monomer, - a second polymer formed from a second monomer comprising (b) a halogenated olefin monomer, wherein the second polymer is obtained by polymerizing the second monomer in the presence of the first polymer, a surface-active agent comprising a nonionic surface-active agent, and a liquid medium comprising water.
A method of prognosing endocrine-only treatment in a subject with breast cancer, the method comprising: a) determining the expression level of the 95 genes listed in Table 4 in a tumor sample of the breast cancer b) comparing said expression levels to a reference expression level of the group of genes from control samples from a cohort of subjects; and c) determining a residual risk associated with the breast cancer; wherein a statistically significant difference or similarity in the expression of the group of genes compared to the reference expression level corresponds to the residual risk associated with breast cancer. a) determining the expression level of the 95 genes listed in Table 4 in a tumor sample of the breast cancer b) comparing said expression levels to a reference expression level of the group of genes from control samples from a cohort of subjects; and c) determining a residual risk associated with the breast cancer;
A control device comprising: a purge control unit which controls a purge valve which emits a volatile fuel of a fuel tank or a canister to an intake pipe of an internal combustion engine; and a power transmission control unit which controls a power transmission mechanism between the internal combustion engine and a drive wheel, wherein, in a state where the power transmission control unit disconnects a clutch, and a vehicle is coasting, the purge control unit opens the purge valve and emits an evaporative fuel to the intake pipe characterized in that the control device comprising an internal combustion engine control unit which, when the volatile fuel concentration value in the fuel tank, the volatile fuel accumulation value of the canister or the evaporative fuel concentration value emitted from the purge valve becomes a predetermined value or less set higher than an evaporative fuel emission request, bans evaporative fuel purge except for sailing driving. a purge control unit which controls a purge valve which emits a volatile fuel of a fuel tank or a canister to an intake pipe of an internal combustion engine; and a power transmission control unit which controls a power transmission mechanism between the internal combustion engine and a drive wheel, wherein, in a state where the power transmission control unit disconnects a clutch, and a vehicle is coasting, the purge control unit opens the purge valve and emits an evaporative fuel to the intake pipe characterized in that the control device comprising an internal combustion engine control unit which, when the volatile fuel concentration value in the fuel tank, the volatile fuel accumulation value of the canister or the evaporative fuel concentration value emitted from the purge valve becomes a predetermined value or less set higher than an evaporative fuel emission request, bans evaporative fuel purge except for sailing driving.
A method of transmitting and receiving data in a time division duplex, TDD, system supporting multiple cells, the method comprising: configuring cell groups, each of the cell groups comprises one or more cells with the same uplink-downlink, UL-DL, configuration when a plurality of cells are configured for a user equipment; and performing a cross cell scheduling on a second cell belonging to a different cell group from a first cell via the first cell according to a UL-DL configuration of the first cell, checking whether a collision subframe in which a UL subframe and a DL subframe are simultaneously present occurs in the same time duration in the first cell and the second cell when performing the cross cell scheduling; performing a cross cell scheduling restriction on data transmission and reception in the collision subframe when the collision subframe is present, wherein the cross cell scheduling is not performed on the collision subframe; and transmitting and receiving data to and from the UE on the second cell in the collision subframe while performing scheduling in the collision subframe according to a UL-DL configuration of the second cell via the second cell. configuring cell groups, each of the cell groups comprises one or more cells with the same uplink-downlink, UL-DL, configuration when a plurality of cells are configured for a user equipment; and performing a cross cell scheduling on a second cell belonging to a different cell group from a first cell via the first cell according to a UL-DL configuration of the first cell, checking whether a collision subframe in which a UL subframe and a DL subframe are simultaneously present occurs in the same time duration in the first cell and the second cell when performing the cross cell scheduling; performing a cross cell scheduling restriction on data transmission and reception in the collision subframe when the collision subframe is present, wherein the cross cell scheduling is not performed on the collision subframe; and transmitting and receiving data to and from the UE on the second cell in the collision subframe while performing scheduling in the collision subframe according to a UL-DL configuration of the second cell via the second cell.
A method of predicting the sensitivity of the growth of a tumor cell to an AKT inhibitor, comprising determining the presence of a mutation to AKT, wherein the presence of a mutation to AKT correlates with sensitivity of the cell to the AKT inhibitor, wherein the AKT inhibitor is -2-(4-chlorophenyl)-1-(4-((SR,7R)-7-hydroxy-5-methyl-6,7-dihydro-5H-cyclopenta[d]pyrimidin-4-yl)piperazin-1-yl)-3-(isopropylamino)propan-1-one, or a pharmaceutically acceptable salt thereof, wherein the mutation corresponds to, or aligns with, L52, E17, or Q79.
A process for recovering acrylic acid, which comprises the steps of a) division of a mother acid stream which has been heated to a temperature of from 50°C to 100°C from a crystallization apparatus into a first mother acid substream and a second mother acid substream in the direction of an absorption column and in the direction of a dissociation column, b) feeding-in of the first heated mother acid substream as runback to the uppermost tray of the dissociation column, while the second mother acid substream is fed via a line to the condensation column, c) feeding-in of at least one stripping gas stream below the lowermost tray of the dissociation column, d) feeding-in of a secondary component stream comprising oligomeric acrylic acid from the condensation column to a middle tray of the dissociation column, e) dissociation of at least part of the oligomeric acrylic acid from the secondary component stream in the dissociation column to give monomeric acrylic acid, f) removal of the secondary components comprised in the secondary component stream by countercurrent rectification in the superposed dissociation column, g) discharge of the monomeric acrylic acid without condensation as gas mixture with the introduced circulating stripping gas stream at the top of the dissociation column and h) feeding-in of the gas mixture below the lowermost tray of the condensation column. a) division of a mother acid stream which has been heated to a temperature of from 50°C to 100°C from a crystallization apparatus into a first mother acid substream and a second mother acid substream in the direction of an absorption column and in the direction of a dissociation column, b) feeding-in of the first heated mother acid substream as runback to the uppermost tray of the dissociation column, while the second mother acid substream is fed via a line to the condensation column, c) feeding-in of at least one stripping gas stream below the lowermost tray of the dissociation column, d) feeding-in of a secondary component stream comprising oligomeric acrylic acid from the condensation column to a middle tray of the dissociation column, e) dissociation of at least part of the oligomeric acrylic acid from the secondary component stream in the dissociation column to give monomeric acrylic acid, f) removal of the secondary components comprised in the secondary component stream by countercurrent rectification in the superposed dissociation column, g) discharge of the monomeric acrylic acid without condensation as gas mixture with the introduced circulating stripping gas stream at the top of the dissociation column and h) feeding-in of the gas mixture below the lowermost tray of the condensation column.
A fuel cell electrode assembly, comprising a membrane; a first electrode on a first side of the membrane; a second electrode on a second side of the membrane; a first gas diffusion layer adjacent the first electrode, at least a portion of the first gas diffusion layer being at least partially impregnated by a first plastic material that bonds the portion of the first gas diffusion layer to the first electrode; a second gas diffusion layer adjacent the second electrode, at least a portion of the second gas diffusion layer being at least partially impregnated by a second plastic material that bonds the second gas diffusion layer to the second electrode; an electrically isolating third plastic material which is different than the first and second plastic materials, wherein the first and second plastic materials have a melting temperature; and the third plastic material has a melting temperature that is higher than the melting temperature of the first and second plastic materials, characterized in that, the third plastic material is between at least one of the gas diffusion layers (30; 32) and the adjacent electrode (26; 28), the third plastic material is configured to electrically isolate the first gas diffusion layer from the second gas diffusion layer, and the third plastic material is encapsulated in at least one of the first plastic material or the second plastic material.
Method for offset determination in a Hall sensor for measuring a magnetic field, the Hall sensor comprising: at least one Hall element having a plate-shaped sensor element made of a doped semiconductor material the method comprising: i) obtaining a first readout signal (V H) from the at least one Hall element by using a first technique which yields a result that is substantially dependent on the magnetic field to be measured including an offset (V O) to be determined, ii) obtaining a second readout signal (V P) from the at least one Hall element by using a second technique which yields a result that is substantially independent of the magnetic field but is correlated to said offset (V O), and characterised in iii) using the second readout signal (V P) for obtaining a prediction ( V̂ O) of the offset (V O) on the first readout signal (V H) as a linear function of the second readout signal (V P), expressed as V̂ O = a + b V P, a and b being parameters in the linear function which are optimized by means of a calibration procedure. the Hall sensor comprising: at least one Hall element having a plate-shaped sensor element made of a doped semiconductor material the method comprising: i) obtaining a first readout signal (V H) from the at least one Hall element by using a first technique which yields a result that is substantially dependent on the magnetic field to be measured including an offset (V O) to be determined, ii) obtaining a second readout signal (V P) from the at least one Hall element by using a second technique which yields a result that is substantially independent of the magnetic field but is correlated to said offset (V O), and characterised in iii) using the second readout signal (V P) for obtaining a prediction ( V̂ O) of the offset (V O) on the first readout signal (V H) as a linear function of the second readout signal (V P), expressed as V̂ O = a + b V P, a and b being parameters in the linear function which are optimized by means of a calibration procedure. i) obtaining a first readout signal (V H) from the at least one Hall element by using a first technique which yields a result that is substantially dependent on the magnetic field to be measured including an offset (V O) to be determined, ii) obtaining a second readout signal (V P) from the at least one Hall element by using a second technique which yields a result that is substantially independent of the magnetic field but is correlated to said offset (V O), and characterised in iii) using the second readout signal (V P) for obtaining a prediction ( V̂ O) of the offset (V O) on the first readout signal (V H) as a linear function of the second readout signal (V P), expressed as V̂ O = a + b V P, a and b being parameters in the linear function which are optimized by means of a calibration procedure.
A method for wireless communications at a user equipment, UE, comprising: receiving, from a base station, a configuration message indicating a set of random access resources associated with monitoring by a relay node, wherein the configuration message comprises a control message indicating that a random access message is to be transmitted by the UE according to a timing advance value associated with uplink data transmissions by the UE; transmitting, based at least in part on the configuration message, the random access message using the random access resources associated with monitoring by the relay node; and communicating with the base station, via the relay node, based at least in part on the random access message, characterized in that the control message comprises downlink control information for triggering contention free random access, CFRA, transmission, wherein the downlink control information comprises a one-bit indicator to indicate the timing advance value is to be applied for transmitting the random access message. receiving, from a base station, a configuration message indicating a set of random access resources associated with monitoring by a relay node, wherein the configuration message comprises a control message indicating that a random access message is to be transmitted by the UE according to a timing advance value associated with uplink data transmissions by the UE; transmitting, based at least in part on the configuration message, the random access message using the random access resources associated with monitoring by the relay node; and communicating with the base station, via the relay node, based at least in part on the random access message, characterized in that the control message comprises downlink control information for triggering contention free random access, CFRA, transmission, wherein the downlink control information comprises a one-bit indicator to indicate the timing advance value is to be applied for transmitting the random access message.