mhurhangee/ep-ind-claims huggingface dataset:
A resorcinol-blocked isocyanate composition comprising: (a) a first compound having Formula: and (b) a second compound having Formula (IIIA): wherein the resorcinol-blocked isocyanate composition has at least two melting temperatures and X and Y are different and each of X and Y is independently a divalent radical having one of the following formulae: each of R a, R b, R c and R d is independently hydrogen, hydroxyl, halide, alkyl, aryl, aralkyl, or alkaryl; and each of R 1, R 2, R 3 and R 4 is independently H, aryl, aralkyl, alkyl, Formula, Formula, Formula, Formula, Formula or Formula: wherein each of R 5 and R 6 is independently H, aryl, aralkyl or alkyl. (a) a first compound having Formula: and (b) a second compound having Formula (IIIA): wherein the resorcinol-blocked isocyanate composition has at least two melting temperatures and X and Y are different and each of X and Y is independently a divalent radical having one of the following formulae: each of R a, R b, R c and R d is independently hydrogen, hydroxyl, halide, alkyl, aryl, aralkyl, or alkaryl; and each of R 1, R 2, R 3 and R 4 is independently H, aryl, aralkyl, alkyl, Formula, Formula, Formula, Formula, Formula or Formula: wherein each of R 5 and R 6 is independently H, aryl, aralkyl or alkyl. the resorcinol-blocked isocyanate composition has at least two melting temperatures and X and Y are different and each of X and Y is independently a divalent radical having one of the following formulae: each of R a, R b, R c and R d is independently hydrogen, hydroxyl, halide, alkyl, aryl, aralkyl, or alkaryl; and each of R 1, R 2, R 3 and R 4 is independently H, aryl, aralkyl, alkyl, Formula, Formula, Formula, Formula, Formula or Formula: wherein each of R 5 and R 6 is independently H, aryl, aralkyl or alkyl.
Multilayer coating system deposited on at least a portion of a solid body surface and containing in the multilayer architecture Al-Cr-B-N individual layers deposited by means of a physical vapour deposition method characterized in that in at least a portion of the overall thickness of the multilayer coating system the Al-Cr-B-N individual layers are combined with Ti-Al-N individual layers, wherein the Al-Cr-B-N and Ti-Al-N individual layers are deposited alternately one on each other, and wherein the thickness of the Al-Cr-B-N individual layers is thicker than the thickness of the Ti-Al-N individual layers, and thereby the residual stress of the multilayer coating system is considerably lower in comparison to the residual stress of the corresponding analogical Al-Cr-B-N monolayer coating system and preferably the hardness of the multilayer coating system is larger or equal to the hardness of the corresponding analogical Al-Cr-B-N monolayer coating.
An audio system comprising: a transducer assembly configured to be coupled to an ear of a user and to produce an acoustic pressure wave based on an audio instruction; an optical fiber (235;295) wherein an end of the optical fiber (235; 295) is configured to be suspended in air and positioned at an entrance of an ear canal (215;265) of the ear (210;260); a laser configured to emit light that is separated into a reference beam and a sensing beam, and the sensing beam is coupled into the optical fiber, wherein movement of the optical fiber caused by the acoustic pressure wave interacts with the sensing beam in the optical fiber to alter an optical path length of the sensing beam; a detector assembly configured to: detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave. a transducer assembly configured to be coupled to an ear of a user and to produce an acoustic pressure wave based on an audio instruction; an optical fiber (235;295) wherein an end of the optical fiber (235; 295) is configured to be suspended in air and positioned at an entrance of an ear canal (215;265) of the ear (210;260); a laser configured to emit light that is separated into a reference beam and a sensing beam, and the sensing beam is coupled into the optical fiber, wherein movement of the optical fiber caused by the acoustic pressure wave interacts with the sensing beam in the optical fiber to alter an optical path length of the sensing beam; a detector assembly configured to: detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave. detect the reference beam and detect the sensing beam from the optical fiber, and measure a detected acoustic pressure wave based in part on changes in optical path length between the reference beam and the sensing beam; and a controller configured to adjust the audio instruction based on the measurement of the detected acoustic pressure wave.
An energy storage system comprising: a power plant configured to generate an exhaust gas comprising carbon dioxide; a first fuel cell comprising: an anode and a cathode separated by an electrolyte matrix; and a power supply configured to apply a reverse voltage to the first fuel cell to operate the first fuel cell in reverse as an electrolyzer; wherein the first fuel cell is configured to receive at least a portion of the exhaust gas from the power plant; wherein the anode is configured to receive carbon dioxide via the exhaust gas and to also receive methane from a separate feed; and wherein the anode is configured to output a hydrogen-containing gas mixture comprising hydrogen and carbon monoxide; a reformer configured to methanate the hydrogen-containing gas mixture output from the anode of the first fuel cell to convert substantially all of the carbon monoxide in the hydrogen-containing gas mixture to methane, wherein the reformer is configured to output a gas mixture; and a second fuel cell operating in reverse as a hydrogen pump, the second fuel cell configured to separate hydrogen from the gas mixture output by the reformer. a power plant configured to generate an exhaust gas comprising carbon dioxide; a first fuel cell comprising: an anode and a cathode separated by an electrolyte matrix; and a power supply configured to apply a reverse voltage to the first fuel cell to operate the first fuel cell in reverse as an electrolyzer; wherein the first fuel cell is configured to receive at least a portion of the exhaust gas from the power plant; wherein the anode is configured to receive carbon dioxide via the exhaust gas and to also receive methane from a separate feed; and wherein the anode is configured to output a hydrogen-containing gas mixture comprising hydrogen and carbon monoxide; an anode and a cathode separated by an electrolyte matrix; and a power supply configured to apply a reverse voltage to the first fuel cell to operate the first fuel cell in reverse as an electrolyzer; wherein the first fuel cell is configured to receive at least a portion of the exhaust gas from the power plant; wherein the anode is configured to receive carbon dioxide via the exhaust gas and to also receive methane from a separate feed; and wherein the anode is configured to output a hydrogen-containing gas mixture comprising hydrogen and carbon monoxide; a reformer configured to methanate the hydrogen-containing gas mixture output from the anode of the first fuel cell to convert substantially all of the carbon monoxide in the hydrogen-containing gas mixture to methane, wherein the reformer is configured to output a gas mixture; and a second fuel cell operating in reverse as a hydrogen pump, the second fuel cell configured to separate hydrogen from the gas mixture output by the reformer.
A fan module comprising the following features, wherein the words top and lateral refer to a position of the fan module in which its rotation axis is vertical: a housing, wherein the housing includes a first air channel and a second air channel separated by a partitioning member, with the housing including an axial air inlet, a radial air inlet and a radial air outlet, with the axial air inlet being in communication with the first air channel, and with the radial air inlet being in communication with the second air channel, and a motor mounted inside the first air channel of the housing and having a stator and an impeller rotatably mounted in the housing as a part of the motor rotatably coupled to the stator and being rotatable about the rotation axis thereof, wherein the fan module is characterised in that the impeller includes a hub containing a top face and a lateral cylindrical peripheral wall, a first guiding blade arranged on the lateral cylindrical peripheral wall of the hub of the impeller and a second guiding blade arranged on the top face of the hub of the impeller and is adapted to draw in air currents via the axial air inlet and the radial air inlet and to expel the air currents via the radial air outlet, with the partitioning member between the first guiding blade and the second guiding blade in an axial direction of the impeller, wherein the fan module is further characterized in that: the lateral cylindrical peripheral wall of the hub and the top face of the hub of the impeller jointly form a central portion of the hub, wherein the stator of the motor is mounted in the central portion of the hub. a housing, wherein the housing includes a first air channel and a second air channel separated by a partitioning member, with the housing including an axial air inlet, a radial air inlet and a radial air outlet, with the axial air inlet being in communication with the first air channel, and with the radial air inlet being in communication with the second air channel, and a motor mounted inside the first air channel of the housing and having a stator and an impeller rotatably mounted in the housing as a part of the motor rotatably coupled to the stator and being rotatable about the rotation axis thereof, wherein the fan module is characterised in that the impeller includes a hub containing a top face and a lateral cylindrical peripheral wall, a first guiding blade arranged on the lateral cylindrical peripheral wall of the hub of the impeller and a second guiding blade arranged on the top face of the hub of the impeller and is adapted to draw in air currents via the axial air inlet and the radial air inlet and to expel the air currents via the radial air outlet, with the partitioning member between the first guiding blade and the second guiding blade in an axial direction of the impeller, wherein the fan module is further characterized in that: the lateral cylindrical peripheral wall of the hub and the top face of the hub of the impeller jointly form a central portion of the hub, wherein the stator of the motor is mounted in the central portion of the hub.
Containment device for a prismatic electrochemical accumulator module, this device comprising a binding strap and a tightening mechanism, characterized in that the tightening mechanism comprises: - a sliding support which comprises a first fastening terminal to which a first end of the binding strap is fastened; - a tightening carriage mounted so as to be movable on the sliding support, in a sliding direction, and comprising a second fastening terminal to which a second end of the binding strap is fastened; - an elastic element urging the tightening carriage towards the first fastening terminal; - a lock designed to occupy: a retaining position in which the lock keeps the tightening carriage at a predetermined distance from the fastening terminal, counter to the elastic element; and a release position in which the lock releases the tightening carriage. - a sliding support which comprises a first fastening terminal to which a first end of the binding strap is fastened; - a tightening carriage mounted so as to be movable on the sliding support, in a sliding direction, and comprising a second fastening terminal to which a second end of the binding strap is fastened; - an elastic element urging the tightening carriage towards the first fastening terminal; - a lock designed to occupy: a retaining position in which the lock keeps the tightening carriage at a predetermined distance from the fastening terminal, counter to the elastic element; and a release position in which the lock releases the tightening carriage.
An ozone generator, comprising: - an n-phase inverter, wherein n = 4 or more, adapted to convert a DC voltage to an n-phase AC voltage having a predetermined frequency, and outputting the n-phase AC voltage; - n electric inductors adapted to suppress each of multiphase AC currents output by the inverter; - an n-phase transformer unit adapted to convert each of the AC voltages output by each of the n electric inductors to a high AC voltage corresponding to each phase with n electric inductors (2000-a) and n transformers (2000-b); - n high-voltage terminals adapted to output each of the plural high AC voltages respectively; - a low voltage terminal adapted to output a low voltage sharing a common potential with the plural high AC voltages; and - n ozone generator units located within a discharge chamber of the ozone generator and adjacently to each of high-voltage terminals respectively, connected with a corresponding high-voltage terminal and a low voltage terminal, and generating ozone by invoking an AC discharge corresponding to each phase, - wherein each of the ozone generator units are electrically divided with respect to the corresponding high-voltage terminal, and has a plurality of stacked flat-plate high-voltage electrodes connected to the corresponding high-voltage terminal respectively and a plurality of stacked flat-plate low-voltage electrode connected to the low voltage terminal, wherein the generator includes a time division device that is capable of equally dividing the time into phases corresponding to a designated phase count signal that is entered thereinto; and wherein, the inverter maintains each of width of phases according to number of phases corresponding to an equally-time-divided signal from the time division device. - an n-phase inverter, wherein n = 4 or more, adapted to convert a DC voltage to an n-phase AC voltage having a predetermined frequency, and outputting the n-phase AC voltage; - n electric inductors adapted to suppress each of multiphase AC currents output by the inverter; - an n-phase transformer unit adapted to convert each of the AC voltages output by each of the n electric inductors to a high AC voltage corresponding to each phase with n electric inductors (2000-a) and n transformers (2000-b); - n high-voltage terminals adapted to output each of the plural high AC voltages respectively; - a low voltage terminal adapted to output a low voltage sharing a common potential with the plural high AC voltages; and - n ozone generator units located within a discharge chamber of the ozone generator and adjacently to each of high-voltage terminals respectively, connected with a corresponding high-voltage terminal and a low voltage terminal, and generating ozone by invoking an AC discharge corresponding to each phase, - wherein each of the ozone generator units are electrically divided with respect to the corresponding high-voltage terminal, and has a plurality of stacked flat-plate high-voltage electrodes connected to the corresponding high-voltage terminal respectively and a plurality of stacked flat-plate low-voltage electrode connected to the low voltage terminal,
A flow delivery article to deliver a gaseous flow to the mouth of a user, comprising: a vibration component (4, 18, 27, 32, 40, 57, 69) to provide tactile stimulation to the user; and a motor configured to drive vibration of the vibration component in response to the vibration component receiving flow drawn by the user. a vibration component (4, 18, 27, 32, 40, 57, 69) to provide tactile stimulation to the user; and a motor configured to drive vibration of the vibration component in response to the vibration component receiving flow drawn by the user.
A fluid delivery device comprising: a body defining a fluid reservoir and a fluid outlet; a connector including structure to connect the fluid delivery device to a medical device; and a housing configured to receive the body wherein the body includes one or more pleats and is collapsible to dispense fluid from the fluid reservoir through the fluid outlet and characterized in that the fluid delivery device further comprises a disc supported on the body within the housing, the disc having one or more teeth which engage notches on the housing to lock the body in one of a plurality of positions. a body defining a fluid reservoir and a fluid outlet; a connector including structure to connect the fluid delivery device to a medical device; and a housing configured to receive the body wherein the body includes one or more pleats and is collapsible to dispense fluid from the fluid reservoir through the fluid outlet and characterized in that the fluid delivery device further comprises a disc supported on the body within the housing, the disc having one or more teeth which engage notches on the housing to lock the body in one of a plurality of positions.
Device for the releasable fastening of an object, in particular a vehicle body, to a supporting structure, in particular to a skid, having a) a fastening element, which is movable between a release position and a locking position; b) a counter element; wherein c) the object is lockable via a holding component assigned thereto between the fastening element in the locking position and the counter element, characterized in that d) the fastening element in the locking position is movable towards the counter element and away from the latter; e) the fastening element in the locking position can be pressed against the holding component of the object in the direction of the counter element under prestress by means of a prestressing device. a) a fastening element, which is movable between a release position and a locking position; b) a counter element; wherein c) the object is lockable via a holding component assigned thereto between the fastening element in the locking position and the counter element, characterized in that d) the fastening element in the locking position is movable towards the counter element and away from the latter; e) the fastening element in the locking position can be pressed against the holding component of the object in the direction of the counter element under prestress by means of a prestressing device.
An antimicrobial sacrificial floor coating composition comprising: (a) a nonionic acrylic polymer; (b) a nonionic wax; (c) a cationic wax; and (d) an antimicrobial agent that includes a cationic alkyl biguanide or salt thereof, wherein: the antimicrobial sacrificial floor coating composition has a pH of less than 7; the nonionic wax is an oxidized high density polyethylene at a concentration of between 2.5 wt% and 8 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging between 9,000 to 10,000 g/mol; and the cationic wax is a cationic oxidized high density polyethylene at a concentration of between 2.5 wt% and 8.0 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging from 1,000 to 50,000 g/mol. (a) a nonionic acrylic polymer; (b) a nonionic wax; (c) a cationic wax; and (d) an antimicrobial agent that includes a cationic alkyl biguanide or salt thereof, wherein: the antimicrobial sacrificial floor coating composition has a pH of less than 7; the nonionic wax is an oxidized high density polyethylene at a concentration of between 2.5 wt% and 8 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging between 9,000 to 10,000 g/mol; and the cationic wax is a cationic oxidized high density polyethylene at a concentration of between 2.5 wt% and 8.0 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging from 1,000 to 50,000 g/mol. the antimicrobial sacrificial floor coating composition has a pH of less than 7; the nonionic wax is an oxidized high density polyethylene at a concentration of between 2.5 wt% and 8 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging between 9,000 to 10,000 g/mol; and the cationic wax is a cationic oxidized high density polyethylene at a concentration of between 2.5 wt% and 8.0 wt% of the antimicrobial sacrificial floor coating composition and has a molecular weight ranging from 1,000 to 50,000 g/mol.
A nucleic acid construct comprising: a) a nucleic acid fragment comprising a nucleotide sequence having at least 80% sequence identity with at least 1187 contiguous nucleotides from SEQ ID NO:1, which nucleotide sequence includes a sequence having at least 80% sequence identity to nucleotide residues 1782 to 1921 of SEQ ID NO:1; and, b) an expression cassette comprising a promoter operably linked to a nucleotide sequence encoding a gene product of interest, wherein, the fragment is linked to the expression cassette in an orientation so that transcription from the promoter in the fragment is in the same direction as transcription from the promoter in the expression cassette, and wherein the fragment, when directly flanking an expression cassette having the nucleotide sequence of SEQ ID NO: 2 upstream of the expression cassette and in an orientation so that transcription from the promoter in the fragment is in the same direction as transcription from the promoter in SEQ ID NO: 2, produces at least 50% of number of colonies obtained with the same expression cassette when flanked with STARs 7 and 67 upstream of the expression cassette and STAR 7 downstream of the expression cassette (SEQ ID NO: 3), when tested under the conditions of Example 1. a) a nucleic acid fragment comprising a nucleotide sequence having at least 80% sequence identity with at least 1187 contiguous nucleotides from SEQ ID NO:1, which nucleotide sequence includes a sequence having at least 80% sequence identity to nucleotide residues 1782 to 1921 of SEQ ID NO:1; and, b) an expression cassette comprising a promoter operably linked to a nucleotide sequence encoding a gene product of interest, wherein, the fragment is linked to the expression cassette in an orientation so that transcription from the promoter in the fragment is in the same direction as transcription from the promoter in the expression cassette, and wherein the fragment, when directly flanking an expression cassette having the nucleotide sequence of SEQ ID NO: 2 upstream of the expression cassette and in an orientation so that transcription from the promoter in the fragment is in the same direction as transcription from the promoter in SEQ ID NO: 2, produces at least 50% of number of colonies obtained with the same expression cassette when flanked with STARs 7 and 67 upstream of the expression cassette and STAR 7 downstream of the expression cassette (SEQ ID NO: 3), when tested under the conditions of Example 1.