mhurhangee/patent-ind-claim-en huggingface dataset:
A low dropout regulator that produces an output, comprising: a comparison circuit , configured to compare a signal representative of the output and a reference signal to produce a comparison result; a loop controller , coupled to the comparison circuit , configured to generate an output circuit control signal based at least in part on the comparison result; an output circuit , comprising two or more output stages, configured to adjust a number of active output stages of the two or more output stages based on the output circuit control signal; characterized by comprising: a timer check circuit , configured to compare a running time of a level of the signal representative of the output to a first reference time to produce a time check signal for adjusting the number of active output stages, wherein the running time begins when the output circuit adjusts the number of active output stages, or the running time begins when a previous comparison result changed state. a comparison circuit , configured to compare a signal representative of the output and a reference signal to produce a comparison result; a loop controller , coupled to the comparison circuit , configured to generate an output circuit control signal based at least in part on the comparison result; an output circuit , comprising two or more output stages, configured to adjust a number of active output stages of the two or more output stages based on the output circuit control signal; a timer check circuit , configured to compare a running time of a level of the signal representative of the output to a first reference time to produce a time check signal for adjusting the number of active output stages, wherein the running time begins when the output circuit adjusts the number of active output stages, or the running time begins when a previous comparison result changed state.
Device for generating cold and power according to the Peltier principle, which has a heat-absorbing and a heat-dissipating part, wherein the formation of thermoelectric TE individual heat exchangers , which are combined to form at least two TE total heat exchangers , in each case a heat-absorbing and a heat-dissipating TE total heat exchanger , which are spatially separated from one another, wherein the heat-absorbing TE total heat exchanger is arranged in an inner part of the device and the heat-dissipating TE total heat exchanger is arranged in an outer part of the device, and each TE individual heat exchanger has printed circuit boards which are positioned in parallel and at distance from each other, having N-P or P-N doped thermocouples, as seen in the direction of current, which are electrically connected in parallel, wherein each TE individual heat exchanger is connected in series with another TE individual heat exchanger , spatially separated therefrom, via a large number of metallic conductors.
Rail vehicle having at least one seat support which runs in the transverse direction of the rail vehicle and is in the form of a cantilever support connected exclusively to a side wall of the rail vehicle, and having a wall-like separating device which is adjacent to the seat support and is arranged parallel to the seat support , characterized in that the separating device is supported on the seat support by means of a holder arranged horizontally in the longitudinal direction of the rail vehicle, wherein an end of the holder that faces the seat support is in the form of a downwardly curved hook which engages from above in an eyelet which is attached rigidly to the seat support .
Use of a hair cosmetic composition as a rinse-off type hair cosmetic by being applied to hair and then washed away, the hair cosmetic composition comprising: the ingredients (A) to (C) and (F) below, and water, wherein a molar ratio of the ingredient (B) to the ingredient (A), (B)/(A), is less than 3, and a mass ratio of the ingredient (C) to the ingredient (A), (C)/(A), is less than 1: (A) an amido-cationic surfactant represented by formula : wherein R 1 represents a linear or branched alkyl group or alkenyl group having 11 to 17 carbon atoms, R 2 represents a linear or branched alkylene group having 2 to 4 carbon atoms, R 3 , R 4 , and R 5 independently represent a linear or branched alkyl group, alkenyl group, or hydroxyalkyl group having 1 to 3 carbon atoms, and X - represents an anion; (B) a fatty alcohol having 14 to 18 carbon atoms; (C) one or more silicone(s) selected from the group consisting of dimethyl polysiloxane and amino-modified silicone; and (F) a liquid oil agent, which is one or more selected from the group consisting of hydrocarbon oils, ester oils, and vegetable oils, the viscosity of the ingredient (F) being 100 mPa·s or less, measured at 25°C using a B-type rotational viscometer and a rotor No. 1, at a rotational speed of 60 rpm. (A) an amido-cationic surfactant represented by formula : wherein R 1 represents a linear or branched alkyl group or alkenyl group having 11 to 17 carbon atoms, R 2 represents a linear or branched alkylene group having 2 to 4 carbon atoms, R 3 , R 4 , and R 5 independently represent a linear or branched alkyl group, alkenyl group, or hydroxyalkyl group having 1 to 3 carbon atoms, and X - represents an anion; (B) a fatty alcohol having 14 to 18 carbon atoms; (C) one or more silicone(s) selected from the group consisting of dimethyl polysiloxane and amino-modified silicone; and (F) a liquid oil agent, which is one or more selected from the group consisting of hydrocarbon oils, ester oils, and vegetable oils, the viscosity of the ingredient (F) being 100 mPa·s or less, measured at 25°C using a B-type rotational viscometer and a rotor No. 1, at a rotational speed of 60 rpm.
A method implemented by a wireless transmit/receive unit, WTRU, the method comprising: receiving a radio resource control, RRC, message, wherein the RRC message comprises information indicating physical uplink shared channel, PUSCH, resources for the WTRU; determining that uplink control information is to be transmitted during a time period that at least partially overlaps with a transmission opportunity associated with the PUSCH resources in a first slot, wherein a transport block associated with the PUSCH resources is to be transmitted in the transmission opportunity; determining that the uplink control information has a higher priority than the transmission opportunity associated with the PUSCH resources in the first slot; transmitting the uplink control information via a physical uplink control channel, PUCCH, transmission during the time period in the first slot; and transmitting the transport block associated with the PUSCH resources in a second slot, wherein the second slot is immediately subsequent to the first slot. receiving a radio resource control, RRC, message, wherein the RRC message comprises information indicating physical uplink shared channel, PUSCH, resources for the WTRU; determining that uplink control information is to be transmitted during a time period that at least partially overlaps with a transmission opportunity associated with the PUSCH resources in a first slot, wherein a transport block associated with the PUSCH resources is to be transmitted in the transmission opportunity; determining that the uplink control information has a higher priority than the transmission opportunity associated with the PUSCH resources in the first slot; transmitting the uplink control information via a physical uplink control channel, PUCCH, transmission during the time period in the first slot; and transmitting the transport block associated with the PUSCH resources in a second slot, wherein the second slot is immediately subsequent to the first slot.
Process for activating an anode and an anode support comprised in a Solid Oxide Cell by reduction of the Solid Oxide Cell, the Solid Oxide Cell further comprising an electrolyte and a cathode, the process comprising the step of - • heating the Solid Oxide Cell to a reduction temperature higher than the maximum intended operation temperature of the Solid Oxide Cell, whereby the electrolyte is kept under compression by the anode support during operation, wherein the reduction temperature of the Solid Oxide Cell is above 500°C, above 700°C, above 750°C, or above 800°C and wherein the anode support comprises a cermet of NiO and YSZ and the activation is done by reducing the NiO into Ni and the coefficient of thermal expansion (CTE) of the electrolyte is lower than the coefficient of thermal expansion (CTE) of the anode support. • heating the Solid Oxide Cell to a reduction temperature higher than the maximum intended operation temperature of the Solid Oxide Cell, whereby the electrolyte is kept under compression by the anode support during operation, wherein the reduction temperature of the Solid Oxide Cell is above 500°C, above 700°C, above 750°C, or above 800°C
Optoelectronic device for detecting objects in a monitored area, having a transmitter emitting transmitted light beams and a receiver receiving received light beams , the received signals of which are amplified with a gain factor in an amplifier unit having an amplifier, in which the amplified received signals are fed to an evaluation unit which is designed to generate an object detection signal as a function of the amplified received signals, and a potentiometer being provided as an adjusting element for amplifying the received signals, characterised in that a working resistor for the receiver is formed with the potentiometer and the potentiometer is at the same time also a component of a feedback network for the amplifier, whereby a non-linear characteristic for the dependence of the amplification factor on a setting predetermined with the potentiometer is preset, wherein the operating voltage is formed by the potentiometer and a resistor connected to a first external terminal, and wherein the second external terminal of the potentiometer is connected to components of the feedback network.
A synthesis gas and nanocarbon production method, comprising: a lower hydrocarbon decomposition step of directly decomposing lower hydrocarbon using a catalyst to produce hydrogen and nanocarbon; a carbon dioxide reduction step of reacting a part of the nanocarbon produced in the lower hydrocarbon decomposition step in a state mixed with the catalyst with carbon dioxide in exhaust gas generated by combustion in a furnace in the lower hydrocarbon decomposition step to produce carbon monoxide; and a mixing step of mixing the hydrogen produced in the lower hydrocarbon decomposition step and the carbon monoxide produced in the carbon dioxide reduction step in a predetermined ratio to obtain a synthesis gas, wherein H 2 and CO are produced separately and then mixed. a lower hydrocarbon decomposition step of directly decomposing lower hydrocarbon using a catalyst to produce hydrogen and nanocarbon; a carbon dioxide reduction step of reacting a part of the nanocarbon produced in the lower hydrocarbon decomposition step in a state mixed with the catalyst with carbon dioxide in exhaust gas generated by combustion in a furnace in the lower hydrocarbon decomposition step to produce carbon monoxide; and a mixing step of mixing the hydrogen produced in the lower hydrocarbon decomposition step and the carbon monoxide produced in the carbon dioxide reduction step in a predetermined ratio to obtain a synthesis gas, wherein H 2 and CO are produced separately and then mixed.
A power control method, comprising: determining (step 901) a power control parameter of a physical uplink shared channel, PUSCH, transmission according to a power control parameter of a physical uplink control channel, PUCCH, corresponding to a specific spatial relationship of the PUCCH configured by high-layer signaling, wherein the PUSCH is scheduled by a Downlink Control Information, DCI, without a Sounding Reference Signal Resource Indicator, SRI, wherein the determining comprises determining a reference signal, RS, parameter of a pathloss, PL, of the PUSCH according to an RS parameter of a PL of the PUCCH, wherein the same RS is used for the PUSCH PL and the PUCCH PL, characterized in that the PUCCH is determined by a PUCCH resource, from a plurality of PUCCH resources, having a smallest PUCCH resource index, and the PUCCH resource having the smallest PUCCH resource index and the PUSCH transmission belong to a same bandwidth part, BWP, and same cell. determining (step 901) a power control parameter of a physical uplink shared channel, PUSCH, transmission according to a power control parameter of a physical uplink control channel, PUCCH, corresponding to a specific spatial relationship of the PUCCH configured by high-layer signaling, wherein the PUSCH is scheduled by a Downlink Control Information, DCI, without a Sounding Reference Signal Resource Indicator, SRI, wherein the determining comprises determining a reference signal, RS, parameter of a pathloss, PL, of the PUSCH according to an RS parameter of a PL of the PUCCH, wherein the same RS is used for the PUSCH PL and the PUCCH PL, characterized in that the PUCCH is determined by a PUCCH resource, from a plurality of PUCCH resources, having a smallest PUCCH resource index, and the PUCCH resource having the smallest PUCCH resource index and the PUSCH transmission belong to a same bandwidth part, BWP, and same cell.
A method comprising: receiving, by a wireless device, downlink control information, DCI, scheduling: transmission of a channel state information, CSI, report on a physical uplink shared channel, PUSCH, transmission with a transport block; one or more first repetitions of the PUSCH transmission with a first spatial domain transmission filter; and one or more second repetitions of the PUSCH transmission with a second spatial domain transmission filter; and transmitting the CSI report on only: an earliest repetition of the one or more first repetitions of the PUSCH transmission with the transport block; and an earliest repetition of the one or more second repetitions of the PUSCH transmission with the transport block. receiving, by a wireless device, downlink control information, DCI, scheduling: transmission of a channel state information, CSI, report on a physical uplink shared channel, PUSCH, transmission with a transport block; one or more first repetitions of the PUSCH transmission with a first spatial domain transmission filter; and one or more second repetitions of the PUSCH transmission with a second spatial domain transmission filter; and transmission of a channel state information, CSI, report on a physical uplink shared channel, PUSCH, transmission with a transport block; one or more first repetitions of the PUSCH transmission with a first spatial domain transmission filter; and one or more second repetitions of the PUSCH transmission with a second spatial domain transmission filter; and transmitting the CSI report on only: an earliest repetition of the one or more first repetitions of the PUSCH transmission with the transport block; and an earliest repetition of the one or more second repetitions of the PUSCH transmission with the transport block. an earliest repetition of the one or more first repetitions of the PUSCH transmission with the transport block; and an earliest repetition of the one or more second repetitions of the PUSCH transmission with the transport block.
A hybrid propulsion system comprising: a gas turbine engine comprising a low speed spool , a high speed spool , and a combustor , wherein the low speed spool comprises a low pressure compressor in a compressor section and a low pressure turbine in a turbine section , and the high speed spool comprises a high pressure compressor in the compressor section and a high pressure turbine in the turbine section; a motor configured to augment rotational power of the high speed spool; a flow modulation device configured to control a combustor bypass air flow around the combustor to the turbine section; and a controller operable to: determine a mode of operation of the gas turbine engine; apply supplemental power to the high speed spool using the motor; modulate the combustor bypass air flow using the flow modulation device based on determining that the gas turbine engine is in an idle mode of operation and supplemental power is applied to the high speed spool; and adjust a fuel-air ratio at the combustor based on modulation of the combustor bypass air flow and the supplemental power applied to the high speed spool. a gas turbine engine comprising a low speed spool , a high speed spool , and a combustor , wherein the low speed spool comprises a low pressure compressor in a compressor section and a low pressure turbine in a turbine section , and the high speed spool comprises a high pressure compressor in the compressor section and a high pressure turbine in the turbine section; a motor configured to augment rotational power of the high speed spool; a flow modulation device configured to control a combustor bypass air flow around the combustor to the turbine section; and a controller operable to: determine a mode of operation of the gas turbine engine; apply supplemental power to the high speed spool using the motor; modulate the combustor bypass air flow using the flow modulation device based on determining that the gas turbine engine is in an idle mode of operation and supplemental power is applied to the high speed spool; and adjust a fuel-air ratio at the combustor based on modulation of the combustor bypass air flow and the supplemental power applied to the high speed spool. determine a mode of operation of the gas turbine engine; apply supplemental power to the high speed spool using the motor; modulate the combustor bypass air flow using the flow modulation device based on determining that the gas turbine engine is in an idle mode of operation and supplemental power is applied to the high speed spool; and adjust a fuel-air ratio at the combustor based on modulation of the combustor bypass air flow and the supplemental power applied to the high speed spool.
Round baler for pressing agricultural crops, such as hay, straw or similar, comprising a pressing chamber , which has pressing apparatuses, and a wrapping device for wrapping a finished round bale in wrapping material inside the pressing chamber , the wrapping device having a supply apparatus for supplying a wrapping material web to the round bale inside the pressing chamber , which apparatus is movable at least between a parking position and a supply position, characterised in that the round baler has a securing apparatus , and the securing apparatus and the supply apparatus are movable relative to one another such that they secure the wrapping material web in position by their cooperation, the wrapping material, which is guided by means of the supply apparatus , being clamped between the securing apparatus and the supply apparatus by the movement of the supply apparatus into the idle position thereof.
Microfluidics valve which comprises: - at least two substrates between which at least a microchannel is formed; - at least a barrier of a meltable material, placed in the microchannel , blocking said microchannel ; and - at least an optical heater configured to melt the barrier ; wherein at least a section of one of the substrates is transparent, characterized in that the optical heater is placed in the longitudinal direction of the microchannel projecting from both sides of the barrier . - at least two substrates between which at least a microchannel is formed; - at least a barrier of a meltable material, placed in the microchannel , blocking said microchannel ; and - at least an optical heater configured to melt the barrier ;
A display device, comprising a display screen and an optical fingerprint module , the display screen comprising a light-shielding panel and a display panel , the light-shielding panel and the optical fingerprint module being located at a back side of the display panel, the light-shielding panel being provided with a hollow-out groove , the optical fingerprint module being fastened to the hollow-out groove , the display panel being configured to be superposed on a side of the light-shielding panel towards a user, a side of the display panel towards the light-shielding panel being provided with an ink layer , an orthographic projection area of the ink layer on the light-shielding panel coinciding with the hollow-out groove , and chromaticity of the ink layer being consistent with chromaticity of a side of the light-shielding panel towards the display panel ; wherein the light-shielding panel comprises a first surface towards the display panel and a second surface opposite the first surface , the hollow-out groove runs through from the first surface to the second surface , wherein the ink layer is provided with a plurality of tiny holes, and the plurality of tiny holes are configured so that light of the optical fingerprint module can be transmitted; wherein the plurality of tiny holes includes a first tiny hole and a second tiny hole , the first tiny hole is configured so that the light emitted by the optical fingerprint module can be transmitted outside, and the second tiny hole is configured so that the light reflected from the outside can be transmitted towards the optical fingerprint module .
A peptide for use in treating oral mucositis in a subject who has been exposed to a damaging amount of radiation or chemotherapeutic agents, wherein the peptide is a peptide comprising the amino acid sequence of any of SEQ ID NOs: 5, 10, 24, 27, 28, 31, 34, 63 and 90 or a pharmaceutical salt, ester or amide thereof and a pharmaceutically-acceptable carrier, diluent or excipient.
An armored vehicle comprising a frame , a driver compartment interior of the frame and a survivability capsule for a driver of the armored vehicle, wherein the driver compartment is defined by an open space within the frame having an interior shape, wherein the survivability capsule comprises: a unibody consisting of molded composite armor having an exterior shape complementary to the interior shape of the driver compartment so as to form a contour fit therein, the unibody being rigidly attached to multiple surfaces of the surrounding frame .