mhurhangee/patent-ind-claim-en huggingface dataset:
A battery electrode slurry distributing method employed in a battery electrode slurry distributing apparatus configured to distribute a battery electrode slurry to a plurality of coating units each configured to coat a metal sheet used to manufacture a battery electrode with the battery electrode slurry, the battery electrode slurry distributing method comprising: a first step in which a battery electrode slurry is circulated through the circulation unit connected to the plurality of coating units in a state in which a pressure is applied to the battery electrode slurry; and a second step in which a supply of the battery electrode slurry circulated in the first step to each of the plurality of coating units is controlled; wherein the circulation unit is structured in a loop, and the circulation unit connects to the plurality of coating units via a plurality of connection units ; and wherein in the second step, in a period in which a plurality of coating units is allowed to receive the supply of the battery electrode slurry, the supply of the battery electrode slurry to the remaining coating units other than the plurality of coating units thus allowed to receive the supply of the battery electrode slurry is inhibited. a first step in which a battery electrode slurry is circulated through the circulation unit connected to the plurality of coating units in a state in which a pressure is applied to the battery electrode slurry; and a second step in which a supply of the battery electrode slurry circulated in the first step to each of the plurality of coating units is controlled; wherein the circulation unit is structured in a loop, and the circulation unit connects to the plurality of coating units via a plurality of connection units ; and wherein in the second step, in a period in which a plurality of coating units is allowed to receive the supply of the battery electrode slurry, the supply of the battery electrode slurry to the remaining coating units other than the plurality of coating units thus allowed to receive the supply of the battery electrode slurry is inhibited.
A Process for manufacturing solutions of alkylated amino formaldehyde resins having a free formaldehyde content of <0.5% by weight, based on the complete weight of the solution, wherein (a) an amino compound selected from the group consisting of melamine and guanamine is methylolated, (b) the methylolated amino compound is alkylated with at least one monoalcohol selected from the group consisting of methanol, n-butanol and isobutanol, (c) the surplus monoalcohol is removed quantitatively by vacuum distillation, and (d) the remaining residue consisting of or consisting essentially of the alkylated amino formaldehyde resin is dissolved in xylene. (a) an amino compound selected from the group consisting of melamine and guanamine is methylolated, (b) the methylolated amino compound is alkylated with at least one monoalcohol selected from the group consisting of methanol, n-butanol and isobutanol, (c) the surplus monoalcohol is removed quantitatively by vacuum distillation, and (d) the remaining residue consisting of or consisting essentially of the alkylated amino formaldehyde resin is dissolved in xylene.
A system for detecting a fluid level in a container , the system comprising: the container having an inner surface and an outer surface and formed using a semiconductor material; a conductive plate located on the outer surface of the container; an insulator located between the conductive plate and the container; and a lead coupled to the conductive plate; and characterized by : a controller coupled electrically to the lead and configured to transmit a first signal to the conductive plate via the lead and to receive a second signal from the conductive plate via the lead, wherein the controller includes a switch and an oscillator , the switch being coupled to lead and being configured to receive an oscillating signal from the oscillator, the switch having a first position to transmit the first signal to the conductive plate and a second position to receive the second signal from the conductive plate, and wherein switching of the switch is controlled by the oscillating signal. the container having an inner surface and an outer surface and formed using a semiconductor material; a conductive plate located on the outer surface of the container; an insulator located between the conductive plate and the container; and a lead coupled to the conductive plate; and characterized by : a controller coupled electrically to the lead and configured to transmit a first signal to the conductive plate via the lead and to receive a second signal from the conductive plate via the lead, wherein the controller includes a switch and an oscillator , the switch being coupled to lead and being configured to receive an oscillating signal from the oscillator, the switch having a first position to transmit the first signal to the conductive plate and a second position to receive the second signal from the conductive plate, and wherein switching of the switch is controlled by the oscillating signal.
Device for securing on an opening in a ventricular wall, comprising - a hollow main body with a generally cylindrical form with an outer surface , - a ring which is received at a first end of said hollow body, this ring being mobile along at least part of the outer surface of the hollow body, - a tubular membrane covering the outer surface of the hollow body, whilst extending between said ring and the end opposite the first end of the hollow body, known as the second end, - a distal end of this tubular membrane , placed on the side of said second end of the hollow body, being self-expandable between a first configuration in which it has a tubular form, and a second configuration in which it defines a first flange extending radially, or substantially radially, starting from said hollow body, this first flange being designed to abut a face of said ventricular wall, - the other end, known as the proximal end, of this tubular membrane being able to be deformed by the displacement of said ring along the outer surface of the hollow body, such as to form a retention flange , the position of which can vary relative to said first flange , so as to adapt to ventricular walls with different thicknesses, - said retention flange being designed to come into contact with the opposite face of said ventricular wall, such that said flanges and the assembly formed by the part of the hollow body and the portion of the tubular membrane covering it, passing through said ventricular wall through said opening, lock said securing device in position in said opening. - a hollow main body with a generally cylindrical form with an outer surface , - a ring which is received at a first end of said hollow body, this ring being mobile along at least part of the outer surface of the hollow body, - a tubular membrane covering the outer surface of the hollow body, whilst extending between said ring and the end opposite the first end of the hollow body, known as the second end, - a distal end of this tubular membrane , placed on the side of said second end of the hollow body, being self-expandable between a first configuration in which it has a tubular form, and a second configuration in which it defines a first flange extending radially, or substantially radially, starting from said hollow body, this first flange being designed to abut a face of said ventricular wall, - the other end, known as the proximal end, of this tubular membrane being able to be deformed by the displacement of said ring along the outer surface of the hollow body, such as to form a retention flange , the position of which can vary relative to said first flange , so as to adapt to ventricular walls with different thicknesses, - said retention flange being designed to come into contact with the opposite face of said ventricular wall, such that said flanges and the assembly formed by the part of the hollow body and the portion of the tubular membrane covering it, passing through said ventricular wall through said opening, lock said securing device in position in said opening.
A method for operating a mobile station to facilitate communication using time-frequency resources, each time-frequency resource comprising a plurality of transmission symbols, each of the transmission symbols spanning a plurality of subcarriers, the method comprising: transmitting, to a base station, at least a first HARQ transmission using a portion of at least one subzone in one or more of the time-frequency resources, where the portion is assigned on a persistent basis to the mobile station, wherein each time-frequency resource comprises one or more subzones, and wherein each subzone comprises at least one block of channel units, with each block of channel units comprising at least one sub-carrier used for all transmission symbols in the subzone; wherein, when the portion that is assigned on a persistent basis is not needed by the mobile station due to one or more of silence intervals for VoIP, delayed packet arrival due to jitter, and HARQ early termination, the portion is released for at least a temporary duration of time, wherein said releasing is based at least in part on a first message received along with a second message, wherein the second message assigns said portion of at least one subzone on a persistent basis, wherein said first message includes at least one associated condition for termination of the persistent assignment of the portion. transmitting, to a base station, at least a first HARQ transmission using a portion of at least one subzone in one or more of the time-frequency resources, where the portion is assigned on a persistent basis to the mobile station, wherein each time-frequency resource comprises one or more subzones, and wherein each subzone comprises at least one block of channel units, with each block of channel units comprising at least one sub-carrier used for all transmission symbols in the subzone; wherein, when the portion that is assigned on a persistent basis is not needed by the mobile station due to one or more of silence intervals for VoIP, delayed packet arrival due to jitter, and HARQ early termination, the portion is released for at least a temporary duration of time, wherein said releasing is based at least in part on a first message received along with a second message, wherein the second message assigns said portion of at least one subzone on a persistent basis, wherein said first message includes at least one associated condition for termination of the persistent assignment of the portion.
A rail vehicle , which is configured to receive electrical energy from a power supply external to the vehicle and which has at least one electrical energy storage unit , wherein the rail vehicle is configured to be moved along in a first operating mode using energy received from the power supply and without energy from the energy storage unit , and in a second operating mode using, at least in part, energy from the energy storage unit , characterised in that the rail vehicle comprises a control device , which is configured to activate the first or the second operating mode in dependence on an upper consumption limit which defines a permissible upper limit of power that may be received from the power supply , wherein the upper consumption limit is variably definable in order to prevent power peaks in the power supply .
Fastening means for connecting a first housing part of a steam or gas turbine to a second housing part of the steam or gas turbine , wherein the connecting means is formed from a base material, wherein the base material has the following composition: C: 0.08% to 0.15% by weight, Mn: 0.20% to 0.60% by weight, Cr: 8.5% to 10.5% by weight, W: 2.5% to 3.5% by weight, Co: 2.5% to 3.5% by weight, N: 0.003% to 0.02% by weight, B: 0.001% to 0.015% by weight, V: 0.10% to 0.30% by weight, Al: at most 0.010% by weight, Nb: 0.02% to 0.08% by weight, Ni: < 0.20% by weight, Mo: < 0.20% by weight, Si: at most 0.10% by weight, P: at most 0.010% by weight, S: at most 0.005% by weight, Fe: remainder, characterized in that the base material is formed such that the ratio of N/B (in % by weight) is between 0.30 and 3.0. wherein the connecting means is formed from a base material, wherein the base material has the following composition: C: 0.08% to 0.15% by weight, Mn: 0.20% to 0.60% by weight, Cr: 8.5% to 10.5% by weight, W: 2.5% to 3.5% by weight, Co: 2.5% to 3.5% by weight, N: 0.003% to 0.02% by weight, B: 0.001% to 0.015% by weight, V: 0.10% to 0.30% by weight, Al: at most 0.010% by weight, Nb: 0.02% to 0.08% by weight, Ni: < 0.20% by weight, Mo: < 0.20% by weight, Si: at most 0.10% by weight, P: at most 0.010% by weight, S: at most 0.005% by weight, Fe: remainder, characterized in that the base material is formed such that the ratio of N/B (in % by weight) is between 0.30 and 3.0. C: 0.08% to 0.15% by weight, Mn: 0.20% to 0.60% by weight, Cr: 8.5% to 10.5% by weight, W: 2.5% to 3.5% by weight, Co: 2.5% to 3.5% by weight, N: 0.003% to 0.02% by weight, B: 0.001% to 0.015% by weight, V: 0.10% to 0.30% by weight, Al: at most 0.010% by weight, Nb: 0.02% to 0.08% by weight, Ni: < 0.20% by weight, Mo: < 0.20% by weight, Si: at most 0.10% by weight, P: at most 0.010% by weight, S: at most 0.005% by weight, Fe: remainder, characterized in that the base material is formed such that the ratio of N/B (in % by weight) is between 0.30 and 3.0.
A process for producing an aqueous polymer dispersion by free-radically initiated aqueous emulsion polymerization, which comprises polymerizing, in an aqueous medium, (a) 40 to 75 parts by weight of at least one vinylaromatic compound and (b) 24.9 to 59.9 parts by weight of at least one conjugated aliphatic diene (c) 0.1 to 10 parts by weight of at least one monomer comprising acid groups and (d) 0 to 20 parts by weight of at least one other monoethylenically unsaturated monomer, the amounts of the monomers (a) to (d) adding up to 100 parts by weight, in a monomer feed process in the presence of a free-radical initiator, with the proviso that - the vinylaromatic compound is metered in under polymerization conditions in a continuous mass flow over a period of at least 120 minutes, - the metering of the conjugated aliphatic diene is started at a time at which at least 5% and not more than 30% of the vinylaromatic compound has already been metered in in a continuous mass flow, - no chain transfer agent selected from aliphatic and/or araliphatic halogen compounds, organic thio compounds and substituted thiols is used during the polymerization, and - optionally, the polymerization is initiated in an aqueous polymerization mixture comprising up to 5% of the vinylaromatic compound and comprising no aliphatic diene. (a) 40 to 75 parts by weight of at least one vinylaromatic compound and (b) 24.9 to 59.9 parts by weight of at least one conjugated aliphatic diene (c) 0.1 to 10 parts by weight of at least one monomer comprising acid groups and (d) 0 to 20 parts by weight of at least one other monoethylenically unsaturated monomer, - the vinylaromatic compound is metered in under polymerization conditions in a continuous mass flow over a period of at least 120 minutes, - the metering of the conjugated aliphatic diene is started at a time at which at least 5% and not more than 30% of the vinylaromatic compound has already been metered in in a continuous mass flow, - no chain transfer agent selected from aliphatic and/or araliphatic halogen compounds, organic thio compounds and substituted thiols is used during the polymerization, and - optionally, the polymerization is initiated in an aqueous polymerization mixture comprising up to 5% of the vinylaromatic compound and comprising no aliphatic diene.
Wheeled rear axle assembly of a motor vehicle, comprising: - a central connection support which is intended to be fastened below a body of the vehicle and which comprises at least a first front transverse crossmember and a second transverse crossmember arranged behind the first front crossmember ; - at least two articulations each comprising at least two lower suspension arms , each of which connects an associated steering knuckle with one side of the connection support , each suspension arm being mounted pivotably about a generally longitudinal axis on the first and second crossmembers of the connection support ; characterized in that the connection support comprises at least one tank delimited by a rigid outer wall, the first and second crossmembers being rigidly connected to one another via the wall of the tank . - a central connection support which is intended to be fastened below a body of the vehicle and which comprises at least a first front transverse crossmember and a second transverse crossmember arranged behind the first front crossmember ; - at least two articulations each comprising at least two lower suspension arms , each of which connects an associated steering knuckle with one side of the connection support , each suspension arm being mounted pivotably about a generally longitudinal axis on the first and second crossmembers of the connection support ;
Suspension concentrate formulations containing a combination of a compound of formula (I) wherein compound (I) has a particle size Dv90 less than 5.0 μm and b) at least one polyalkylene oxide block copolymer of formula (II) wherein in compound of formula (II) x, z is 2 to 140 and y is 15 to 80. x, z is 2 to 140 and y is 15 to 80.
A use of a translucent polycrystalline material as a laser medium, the material comprising: a group of single crystal grains of a plurality of types, wherein a composition of the single crystal grains varies continuously within the material, optical properties vary continuously within the material, a core portion that is formed from a material doped with a light-emitting center substance and oscillates a laser beam and a guide portion that is formed from a material undoped with the light-emitting center substance and does not oscillate the laser beam coexist within the material, and excitation light is guided to the core portion. a group of single crystal grains of a plurality of types, wherein a composition of the single crystal grains varies continuously within the material, optical properties vary continuously within the material, a core portion that is formed from a material doped with a light-emitting center substance and oscillates a laser beam and a guide portion that is formed from a material undoped with the light-emitting center substance and does not oscillate the laser beam coexist within the material, and excitation light is guided to the core portion.
An auxiliary power unit enclosure for an aircraft comprising: a space frame configured to carry a load and defining an auxiliary power unit compartment , wherein the space frame comprises a plurality of frame elements coupled together at a plurality of nodes ; and a fairing coupled to and surrounding the space frame, wherein the fairing does not serve as a primary structural component of a fuselage of the aircraft, wherein: the space frame is formed of a first material having a first critical temperature ; the fairing is formed of a second material having a second critical temperature ; and the second critical temperature is less than the first critical temperature, wherein the critical temperature refers to a temperature at which a material exceeds its ultimate strength and ceases to provide sufficient load carrying capacity, and wherein the critical temperature and ultimate strength differential enables the space frame to withstand a thermal event and maintain its load-carrying capacity in response to extreme temperatures within the auxiliary power unit enclosure resulting from a fault in the APU, while the fairing is permitted to structurally degrade in response to such temperatures. a space frame configured to carry a load and defining an auxiliary power unit compartment , wherein the space frame comprises a plurality of frame elements coupled together at a plurality of nodes ; and a fairing coupled to and surrounding the space frame, wherein the fairing does not serve as a primary structural component of a fuselage of the aircraft, the space frame is formed of a first material having a first critical temperature ; the fairing is formed of a second material having a second critical temperature ; and the second critical temperature is less than the first critical temperature, wherein the critical temperature refers to a temperature at which a material exceeds its ultimate strength and ceases to provide sufficient load carrying capacity, and wherein the critical temperature and ultimate strength differential enables the space frame to withstand a thermal event and maintain its load-carrying capacity in response to extreme temperatures within the auxiliary power unit enclosure resulting from a fault in the APU, while the fairing is permitted to structurally degrade in response to such temperatures.
An apparatus for analysis of metals, wherein the apparatus comprises: a molding cavity for receiving a sample of a molten metal; a gating system for allowing the molten metal to be poured; a recess slot extending between the gating system and the molding cavity for allowing the molten metal to flow from the gating system to the molding cavity ; a vent , extending from the molding cavity , for allowing gases to escape from the apparatus when the molten metal is poured; at least one chill plate , adjacent to the molding cavity , for enabling cooling and solidification of the sample of the molten metal; and a longitudinal slot , extending from the molding cavity , in which a sensor element is introduced into the bottom of the molding cavity , wherein the sensor element is a thermocouple wire that is arranged to monitor a cooling curve of the molten metal, while the molten metal solidifies, characterized in that the apparatus comprises mold halves that, when put together, provide the recess slot in a periphery of the molding cavity , wherein the recess slot extends along the periphery of the molding cavity from the gating system into the molding cavity up to the vent , wherein the sensor element is introduced in the bottom of the molding cavity such that it is pre-heatable by molten metal inserted into the molding cavity , wherein the gating system ends at the height of the bottom of the molding cavity to allow the molten metal to be filled in the molding cavity in a bottom up direction. a molding cavity for receiving a sample of a molten metal; a gating system for allowing the molten metal to be poured; a recess slot extending between the gating system and the molding cavity for allowing the molten metal to flow from the gating system to the molding cavity ; a vent , extending from the molding cavity , for allowing gases to escape from the apparatus when the molten metal is poured; at least one chill plate , adjacent to the molding cavity , for enabling cooling and solidification of the sample of the molten metal; and a longitudinal slot , extending from the molding cavity , in which a sensor element is introduced into the bottom of the molding cavity , wherein the sensor element is a thermocouple wire that is arranged to monitor a cooling curve of the molten metal, while the molten metal solidifies, characterized in that the apparatus comprises mold halves that, when put together, provide the recess slot in a periphery of the molding cavity , wherein the recess slot extends along the periphery of the molding cavity from the gating system into the molding cavity up to the vent , wherein the sensor element is introduced in the bottom of the molding cavity such that it is pre-heatable by molten metal inserted into the molding cavity , wherein the gating system ends at the height of the bottom of the molding cavity to allow the molten metal to be filled in the molding cavity in a bottom up direction.