mhurhangee/patent-ind-claim-en huggingface dataset:
A noise dosimetry system, comprising: an earplug comprising: an eartip for insertion into an ear canal of a human, the eartip having a proximal end closest to an eardrum of the human when the eartip is inserted in the ear canal, a distal end, and a sound delivery channel leading from the proximal end to the distal end; a microphone , acoustically coupled to the sound delivery channel at the distal end of the eartip, having a microphone electrical output; a processing function having an input and an output; and at least one equalization circuit having an input coupled to the microphone electrical output and an output coupled to the processing function input, wherein the earplug further comprises a switch coupled to the at least one equalization circuit, the switch configured to be in an activated state when a first set of predetermined conditions is met and configured to be in a non-activated state when a second set of predetermined conditions is met, the at least one equalization circuit configured to exhibit a first electrical response when the switch is in the non-activated state and exhibit a second electrical response when the switch is in the activated state. an eartip for insertion into an ear canal of a human, the eartip having a proximal end closest to an eardrum of the human when the eartip is inserted in the ear canal, a distal end, and a sound delivery channel leading from the proximal end to the distal end; a microphone , acoustically coupled to the sound delivery channel at the distal end of the eartip, having a microphone electrical output; a processing function having an input and an output; and at least one equalization circuit having an input coupled to the microphone electrical output and an output coupled to the processing function input, wherein the earplug further comprises a switch coupled to the at least one equalization circuit, the switch configured to be in an activated state when a first set of predetermined conditions is met and configured to be in a non-activated state when a second set of predetermined conditions is met, the at least one equalization circuit configured to exhibit a first electrical response when the switch is in the non-activated state and exhibit a second electrical response when the switch is in the activated state.
Thermoelectric compound based on a cobalt antimony sulfide alloy with selenium of formula CoSbS1-xSex, x being according to 0 < x < 1, said alloy is doped with tellurium on the antimony site.
A porous membrane comprising: a membrane-forming polymer (A), wherein the membrane-forming polymer (A) is a fluorine-containing polymer; and a polymer (B) containing a methyl methacrylate unit and a hydroxyl group-containing (meth)acrylate (b1) unit, wherein the content of the hydroxyl group-containing (meth)acrylate (b1) unit in the polymer (B) is from 20 to 60% by mass, wherein the polymer (B) is a random copolymer obtained by copolymerizing a monomer composition containing methyl methacrylate and the hydroxyl group containing (meth)acrylate (b1) unit, wherein the hydroxyl group-containing (meth)acrylate (b1) unit is a monomer selected from the group consisting of 2-hydroxyethyl (meth)acrylate, 2-hydroxypropyl (meth)acrylate, 2-hydroxybutyl (meth)acrylate, 3-hydroxybutyl (meth)acrylate, 4-hydroxybutyl (meth)acrylate, polyethylene glycol (meth)acrylate, and polypropylene glycol (meth)acrylate; characterized in that the proportion of the polymer (B) with respect to the sum of the membrane-forming polymer (A) and the polymer (B) in the porous membrane is from 0.1 to 40% by mass and wherein the content of membrane-forming polymer (A), polymer (B) and (meth)acrylate unit (b1) is determined by the method disclosed herein. a membrane-forming polymer (A), wherein the membrane-forming polymer (A) is a fluorine-containing polymer; and a polymer (B) containing a methyl methacrylate unit and a hydroxyl group-containing (meth)acrylate (b1) unit, wherein the content of the hydroxyl group-containing (meth)acrylate (b1) unit in the polymer (B) is from 20 to 60% by mass, wherein the polymer (B) is a random copolymer obtained by copolymerizing a monomer composition containing methyl methacrylate and the hydroxyl group containing (meth)acrylate (b1) unit, wherein the hydroxyl group-containing (meth)acrylate (b1) unit is a monomer selected from the group consisting of 2-hydroxyethyl (meth)acrylate, 2-hydroxypropyl (meth)acrylate, 2-hydroxybutyl (meth)acrylate, 3-hydroxybutyl (meth)acrylate, 4-hydroxybutyl (meth)acrylate, polyethylene glycol (meth)acrylate, and polypropylene glycol (meth)acrylate; characterized in that the proportion of the polymer (B) with respect to the sum of the membrane-forming polymer (A) and the polymer (B) in the porous membrane is from 0.1 to 40% by mass and wherein the content of membrane-forming polymer (A), polymer (B) and (meth)acrylate unit (b1) is determined by the method disclosed herein.
A panel bottom member structure for a display device, the panel bottom member structure comprising: a panel bottom member including: a light absorbing member ; a top bonding layer disposed on the light absorbing member; an acoustic vibration element which is disposed beneath the light absorbing member and is configured to generate a vibration in response to an acoustic signal; and a buffer member disposed beneath the light absorbing member and non-overlapping the acoustic vibration element ; and an element circuit board (VFPC) connected to the acoustic vibration element for transmitting the acoustic signal to the acoustic vibration element. a light absorbing member ; a top bonding layer disposed on the light absorbing member; an acoustic vibration element which is disposed beneath the light absorbing member and is configured to generate a vibration in response to an acoustic signal; and a buffer member disposed beneath the light absorbing member and non-overlapping the acoustic vibration element ; and an element circuit board (VFPC) connected to the acoustic vibration element for transmitting the acoustic signal to the acoustic vibration element.
A synthesizer comprising two cascaded PLL circuits including: - a two-point modulation phase locked loop, TPM PLL, circuit configured to receive a frequency tuning signal and comprising a two-point modulation PLL to generate a stepped chirp signal in an intermediate frequency range, and - a subsampling PLL circuit configured to receive the stepped chirp signal generated by the TPM PLL circuit and comprising a subsampling PLL to generate a smoothened chirp signal in a mm-wave frequency range from the stepped chirp signal. - a two-point modulation phase locked loop, TPM PLL, circuit configured to receive a frequency tuning signal and comprising a two-point modulation PLL to generate a stepped chirp signal in an intermediate frequency range, and - a subsampling PLL circuit configured to receive the stepped chirp signal generated by the TPM PLL circuit and comprising a subsampling PLL to generate a smoothened chirp signal in a mm-wave frequency range from the stepped chirp signal.
A method for clamping and adjusting a printing substrate on a printing table of a printing press for processing roll material in which the substrate of a first winding roll with unprinted substrate wound thereon is guided with a front edge over the printing table to a second winding roll for the printed substrate and wound thereon, characterized by the following successive method steps: a1) feeding in the front edge of the substrate from the first winding roll over a fixedly arranged feeder roll and a tensioning roll which is arranged between the winding roll and the feeder roll and is elastically mounted at both ends, b1) transferring the front edge over the printing table and over a withdrawal roller , and c1) orienting the side edges of the substrate in the movement direction by causing equally large visually or acoustically displayed tensile forces which are measured at both ends of the first tensioning roll , said tensile forces being caused by the front edge of the substrate being displaced perpendicularly to the movement direction until it reaches the equally large visually or acoustically displayed tensile forces which are measured at both ends of the first tensioning roll . a1) feeding in the front edge of the substrate from the first winding roll over a fixedly arranged feeder roll and a tensioning roll which is arranged between the winding roll and the feeder roll and is elastically mounted at both ends, b1) transferring the front edge over the printing table and over a withdrawal roller , and c1) orienting the side edges of the substrate in the movement direction by causing equally large visually or acoustically displayed tensile forces which are measured at both ends of the first tensioning roll , said tensile forces being caused by the front edge of the substrate being displaced perpendicularly to the movement direction until it reaches the equally large visually or acoustically displayed tensile forces which are measured at both ends of the first tensioning roll .
A method of hosting a stable droplet pattern comprising: providing a pattern of hydrophilic features in a flow compartment comprising a liquid inlet and outlet, contacting the pattern of hydrophilic features with a liquid followed by withdrawal of the liquid to produce a pattern of droplets, blocking the liquid inlet and outlet to provide a closed environment and allowing liquid to evaporate from the droplets until a saturation pressure is established in the flow compartment to produce a functional gas phase seal, and the droplets, now having a reduced volume due to the evaporation, remain stable, wherein the flow compartment volume ( V C ) does not exceed the greatest possible flow compartment volume ( V MAX ) where droplets are not completely evaporated.
A programmable delay circuit block , comprising: an input stage comprising a cascade input and a clock input ; wherein the input stage comprises a memory cell (MC ) and passes either the signal at the cascade input or the signal received at the clock input according to a value stored in the memory cell (MC ); a delay block coupled to an output of the input stage and configured to generate a delayed signal by applying a selected amount of delay to the signal passed from the input stage ; a pulse generator coupled to an output of the delay block and configured to generate a pulse signal having a pulse width that depends upon the amount of delay applied by the delay block ; and an output stage coupled to an output of the pulse generator , the output stage comprising a cascade output and a clock output for the programmable delay circuit block ; wherein the output stage is configurable to pass an inverted version of the pulse signal or the delayed signal to the cascade output and configurable to pass the signal received at the clock input, the inverted version of the pulse signal, or the delayed signal to the clock output . an input stage comprising a cascade input and a clock input ; wherein the input stage comprises a memory cell (MC ) and passes either the signal at the cascade input or the signal received at the clock input according to a value stored in the memory cell (MC ); a delay block coupled to an output of the input stage and configured to generate a delayed signal by applying a selected amount of delay to the signal passed from the input stage ; a pulse generator coupled to an output of the delay block and configured to generate a pulse signal having a pulse width that depends upon the amount of delay applied by the delay block ; and an output stage coupled to an output of the pulse generator , the output stage comprising a cascade output and a clock output for the programmable delay circuit block ; wherein the output stage is configurable to pass an inverted version of the pulse signal or the delayed signal to the cascade output and configurable to pass the signal received at the clock input, the inverted version of the pulse signal, or the delayed signal to the clock output .
Method for placing a call for a lift system , comprising: - a mobile communication device which is carried by a user of the lift system , - a beacon of the lift system , which is designed to emit a beacon signal , and - a controller of the lift system , wherein the method comprises the following steps: - capturing the beacon signal by means of the mobile communication device , - recognizing a gesture of the user by means of the mobile communication device , - identifying an intention of the user to use the lift system , wherein the recognized gesture and the captured beacon signal are used for this purpose, - displaying a user interface on the mobile communication device for the purpose of sending a call, and - sending the call to the controller of the lift system . - a mobile communication device which is carried by a user of the lift system , - a beacon of the lift system , which is designed to emit a beacon signal , and - a controller of the lift system , - capturing the beacon signal by means of the mobile communication device , - recognizing a gesture of the user by means of the mobile communication device , - identifying an intention of the user to use the lift system , wherein the recognized gesture and the captured beacon signal are used for this purpose, - displaying a user interface on the mobile communication device for the purpose of sending a call, and - sending the call to the controller of the lift system .
An antibody that binds specifically to a TFPI (tissue factor pathway inhibitor) represented by SEQ ID NO: 39, wherein the antibody has a heavy-chain variable region comprising a sequence of SEQ ID NO: 99 and a light-chain variable region comprising a sequence of SEQ ID NO: 96 and wherein the constant region comprises the human IgG4 heavy chain constant region and the human IgG4 light chain constant region.
A holding apparatus, comprising: a base tray with a first portion and a second portion , wherein the base tray is configured to hold a first board with first connectors in the first portion; and an expansion tray configured to fit within the second portion of the base tray and configured to hold a second board with second connectors facing the first connectors, the expansion tray comprising a transition mechanism configured to transition the second board between a first position and a second position, such that the first connectors and the second connectors engage in the first position, and the first connectors and the second connectors disengage in the second position; wherein the first board is a graphics processing unit (GPU) board, and the second board is an expander PCIE board; wherein the transition mechanism comprises a lever and a pin , wherein the pin is positioned adjacent to and coupled to the second board, when the second board is loaded into the expansion tray; wherein the second board is movable from the second, disengaged, position to the first, engaged, position by pulling the lever in a counter-clockwise motion, causing the pin to push the second board; wherein when the second board is in the engaged position, the second board is movable into the disengaged position by pulling the lever in a clockwise motion, causing the pin to move backwards, thereby bringing the second board away from the first board. a base tray with a first portion and a second portion , wherein the base tray is configured to hold a first board with first connectors in the first portion; and an expansion tray configured to fit within the second portion of the base tray and configured to hold a second board with second connectors facing the first connectors, the expansion tray comprising a transition mechanism configured to transition the second board between a first position and a second position, such that the first connectors and the second connectors engage in the first position, and the first connectors and the second connectors disengage in the second position; wherein the first board is a graphics processing unit (GPU) board, and the second board is an expander PCIE board; wherein the transition mechanism comprises a lever and a pin , wherein the pin is positioned adjacent to and coupled to the second board, when the second board is loaded into the expansion tray; wherein the second board is movable from the second, disengaged, position to the first, engaged, position by pulling the lever in a counter-clockwise motion, causing the pin to push the second board; wherein when the second board is in the engaged position, the second board is movable into the disengaged position by pulling the lever in a clockwise motion, causing the pin to move backwards, thereby bringing the second board away from the first board.
A system for fire suppression, the system comprising: a fuel tank inerting system comprising a catalytic fuel oxidation system configured to react on board jet fuel to produce water and an inert gas mixture of nitrogen and carbon dioxide; a water source; and a low pressure misting nozzle directed into a cargo hold ; wherein the low pressure misting nozzle is configured to produce a mist solution using the inert gas mixture and water. a fuel tank inerting system comprising a catalytic fuel oxidation system configured to react on board jet fuel to produce water and an inert gas mixture of nitrogen and carbon dioxide; a water source; and a low pressure misting nozzle directed into a cargo hold ; wherein the low pressure misting nozzle is configured to produce a mist solution using the inert gas mixture and water.
Non-spherical resin particles, each having a circular outline when viewed from a direction in which a maximum projected area is produced and a non-circular outline when viewed from a direction in which a minimum projected area is produced, each of the non-spherical resin particles comprising a first resin component and a second resin component which is different from the first resin component, the second resin component residing locally near a surface of that particle, wherein: the first resin component is a hydrophilic resin, and the second resin component is a hydrophobic resin, and the hydrophobic resin is a homopolymer or a copolymer of a (meth)acrylic acid ester having a C 2 -C 10 alkyl fluoride group in an ester moiety thereof. the first resin component is a hydrophilic resin, and the second resin component is a hydrophobic resin, and the hydrophobic resin is a homopolymer or a copolymer of a (meth)acrylic acid ester having a C 2 -C 10 alkyl fluoride group in an ester moiety thereof.
A welded steel pipe for a linepipe having the composition consisting of, by mass% 0.03 to 0.08% C, 0.05% or less Si, 1.00 to 2.00% Mn, 0.010% or less P, 0.0030% or less S, 0.06% or less Al, 0.005 to 0.020% Nb, 0.005 to 0.025% Ti, 0.0010 to 0.0060% N, 0.0015 to 0.0035% Ca, optionally at least one selected from the group consisting of 0.50% or less Cu, 1.0% or less Ni, 0.50% or less Cr, 0.50% or less Mo and 0.10% or less V, and Fe and unavoidable impurities as a balance, wherein C(%) - 0.065Nb(%) is 0.025 or more, Ti(%)/N(%) is a value which falls within a range of 2 to 4, and a Ceq value expressed by a following formula is 0.30 or more, Ceq = C % + Mn % / 6 + Cr % + Mo % + V % / 5 + Cu % + Ni % / 15 a base material having metal microstructure at a position 1/4 of a plate thickness on an inner surface side of the steel pipe where a fraction of bainite is 80% or more, a fraction of M-A constituent (MA) is 3% or less, a fraction of cementite is 5% or less, and an average grain size of bainite is 5 μm or less, an average grain size of MA is 1 μm or less and a welded heat affected zone having metal microstructure where a fraction of bainite is 90% or more and a fraction of M-A constituent (MA) is 3% or less. C(%) - 0.065Nb(%) is 0.025 or more, Ti(%)/N(%) is a value which falls within a range of 2 to 4, and a Ceq value expressed by a following formula is 0.30 or more, Ceq = C % + Mn % / 6 + Cr % + Mo % + V % / 5 + Cu % + Ni % / 15 a base material having metal microstructure at a position 1/4 of a plate thickness on an inner surface side of the steel pipe where a fraction of bainite is 80% or more, a fraction of M-A constituent (MA) is 3% or less, a fraction of cementite is 5% or less, and an average grain size of bainite is 5 μm or less, an average grain size of MA is 1 μm or less and a welded heat affected zone having metal microstructure where a fraction of bainite is 90% or more and a fraction of M-A constituent (MA) is 3% or less.
A method for analysing an electroencephalogram representative of the functional state of the brain of a subject, the brain having a cortex and being subject to cortical and subcortical inputs, the method including the steps of: (i) obtaining electroencephalogram (EEG) signals from a plurality of electrodes positioned on the subject's scalp; (ii) generating a plurality of EEG segments from the EEG signals; (iii) representing said EEG segments as a fixed-order autoregressive moving average (ARMA) signal representation with an autoregressive order (AR) between 8 and 14 and a moving average (MA) order between 5 and 11; (iv) generating AR and MA coefficient data of said ARMA signal representation for said EEG segments; (v) generating, based on said AR and MA coefficient data, cortical state (CS) data representing the functional state of said cortex at times corresponding to respective EEG segments; (vi) generating cortical input data (CI) from said AR and MA coefficient data and said EEG segments representative of the level of cortical and subcortical inputs to said cortex at times corresponding to respective EEG segments; (vii) generating, based on said cortical state (CS) data and said cortical input (CI) data generated in steps (v) and (vi), display data in the form of a sequence of CS and CI pairs at the same points in time as the corresponding EEG segments; and (viii) displaying said display data on display means. (i) obtaining electroencephalogram (EEG) signals from a plurality of electrodes positioned on the subject's scalp; (ii) generating a plurality of EEG segments from the EEG signals; (iii) representing said EEG segments as a fixed-order autoregressive moving average (ARMA) signal representation with an autoregressive order (AR) between 8 and 14 and a moving average (MA) order between 5 and 11; (iv) generating AR and MA coefficient data of said ARMA signal representation for said EEG segments; (v) generating, based on said AR and MA coefficient data, cortical state (CS) data representing the functional state of said cortex at times corresponding to respective EEG segments; (vi) generating cortical input data (CI) from said AR and MA coefficient data and said EEG segments representative of the level of cortical and subcortical inputs to said cortex at times corresponding to respective EEG segments; (vii) generating, based on said cortical state (CS) data and said cortical input (CI) data generated in steps (v) and (vi), display data in the form of a sequence of CS and CI pairs at the same points in time as the corresponding EEG segments; and (viii) displaying said display data on display means.