mhurhangee/ep-ind-claims huggingface dataset:
Molding tool for molding an opening device comprising a collar having a pouring outlet, a lid covering the pouring outlet and a gripping element connected to and protruding from the lid; the molding tool comprises a plurality of molding tool portions (41, 42, 43) controllable in a molding configuration in which the molding tool portions (41, 42, 43) are approached towards one another thereby defining a mold cavity and a demolding configuration in which the molding tool portions (41, 42, 43) are distanced from one another thereby allowing to demold a molded opening device; wherein at least one molding tool portion comprises a base and a forming element coupled to the base and configured to at least partially define a shape of a portion of the opening device; wherein the base comprises a first metallic material and the forming element comprises a second metallic material distinct from the first metallic material, wherein the second metallic material has a larger thermal conductivity than the first metallic material, wherein the forming element at least partially defines a shape of the gripping element and the lid of the opening device to be molded. the molding tool comprises a plurality of molding tool portions (41, 42, 43) controllable in a molding configuration in which the molding tool portions (41, 42, 43) are approached towards one another thereby defining a mold cavity and a demolding configuration in which the molding tool portions (41, 42, 43) are distanced from one another thereby allowing to demold a molded opening device; wherein at least one molding tool portion comprises a base and a forming element coupled to the base and configured to at least partially define a shape of a portion of the opening device; wherein the base comprises a first metallic material and the forming element comprises a second metallic material distinct from the first metallic material, wherein the second metallic material has a larger thermal conductivity than the first metallic material, wherein the forming element at least partially defines a shape of the gripping element and the lid of the opening device to be molded.
A line memory forming apparatus comprising: several RAM components (MB1-MBn), each of said RAM components having a word length direction and a bit width direction, being cascade-connected in the word length direction; several line memories (LM1-LM8) logically formed in said several RAM components (MB1-MBn), and logically serial-connected by a plurality of connections (13a-13d) between, respectively, a part of the outputs of the final-stage RAM component (MBn) and a part of the inputs of the first-stage RAM component, so that the output of one line memory forms the input of the next line memory, wherein the total number of bits in the word length direction of the cascade-connected several RAM components is the same as or slightly greater than the number of bits in the word length direction of each of said several line memories, and the number of bits in the bit width direction of each of the RAM components is the same as or slightly greater than the total number of bits in a row direction of said several line memories; a controller controlling write address and read address of said several RAM components to drive the line memories (LM1-LM8); and an operating unit capturing an output from each of said several line memories (LM1-LM8). several RAM components (MB1-MBn), each of said RAM components having a word length direction and a bit width direction, being cascade-connected in the word length direction; several line memories (LM1-LM8) logically formed in said several RAM components (MB1-MBn), and logically serial-connected by a plurality of connections (13a-13d) between, respectively, a part of the outputs of the final-stage RAM component (MBn) and a part of the inputs of the first-stage RAM component, so that the output of one line memory forms the input of the next line memory, wherein the total number of bits in the word length direction of the cascade-connected several RAM components is the same as or slightly greater than the number of bits in the word length direction of each of said several line memories, and the number of bits in the bit width direction of each of the RAM components is the same as or slightly greater than the total number of bits in a row direction of said several line memories; a controller controlling write address and read address of said several RAM components to drive the line memories (LM1-LM8); and an operating unit capturing an output from each of said several line memories (LM1-LM8).
An acoustically resistive cover comprising: a. first layer which is a porous polymeric material, b. second layer which is a porous polymeric material, the second layer being water repellent, the layers being in the form of a foam, non woven, woven, knit, scrim or mesh material, and a spacer; wherein the spacer is configured to provide a space between the first layer and the second layer such that the first layer does not contact the second layer, characterised in that the space between the first layer and the second layer is at least 1mm. a. first layer which is a porous polymeric material, b. second layer which is a porous polymeric material, the second layer being water repellent, the layers being in the form of a foam, non woven, woven, knit, scrim or mesh material, and a spacer; wherein the spacer is configured to provide a space between the first layer and the second layer such that the first layer does not contact the second layer, characterised in that the space between the first layer and the second layer is at least 1mm.
A method for identifying scrambled disulfide bonds in a protein drug product, comprising: preparing peptide standards comprising regions of the protein drug product containing one or more disulfide bonds, wherein a first peptide standard comprises a first scrambled disulfide bond, and a second standard comprises a second and different scrambled disulfide bond, and wherein the first and second peptide standards have different, known liquid chromatography retention times; digesting a sample of protein drug product into peptides; and analyzing a sample containing the protein drug product peptides and the peptide standards using an LC-MS 2 system, wherein peptides detected at the retention time of the first standard indicate the presence of scrambled disulfide bond of the first peptide standard is present in the protein drug product, and peptides detected at the retention time of the second peptide standard retention time indicates the presence of the scrambled disulfide bonds of the second peptide standard are present in the protein drug product. preparing peptide standards comprising regions of the protein drug product containing one or more disulfide bonds, wherein a first peptide standard comprises a first scrambled disulfide bond, and a second standard comprises a second and different scrambled disulfide bond, and wherein the first and second peptide standards have different, known liquid chromatography retention times; digesting a sample of protein drug product into peptides; and analyzing a sample containing the protein drug product peptides and the peptide standards using an LC-MS 2 system, wherein peptides detected at the retention time of the first standard indicate the presence of scrambled disulfide bond of the first peptide standard is present in the protein drug product, and peptides detected at the retention time of the second peptide standard retention time indicates the presence of the scrambled disulfide bonds of the second peptide standard are present in the protein drug product.
A tire tread (10, 10', 10") comprising: a circumferential tread cap having circumferential grooves and comprising a tread cap rubber compound for contacting a road when driving, the tread cap rubber compound having a Shore A hardness from 45 to 75, measured in accordance with ASTM D2240; at least one circumferential groove reinforcement (3, 3', 3") reinforcing at least a bottom portion of at least one of the grooves and comprising a groove reinforcement rubber compound; a circumferential tread base layer arranged radially inwards of the tread cap and comprising a tread base layer compound, wherein the tread base layer compound has a Shore A hardness from 15 to 60, measured in accordance with ASTM D2240, and wherein the Shore A hardness of the tread cap compound is higher than the Shore A hardness of the tread base layer compound, and wherein the Shore A hardness of the groove reinforcement compound is higher than the Shore A hardness of the tread cap compound, and wherein the tire tread (10, 10', 10") is characterized in that the groove reinforcement rubber compound has a Shore A hardness from 80 to 100, measured in accordance with ASTM D2240. a circumferential tread cap having circumferential grooves and comprising a tread cap rubber compound for contacting a road when driving, the tread cap rubber compound having a Shore A hardness from 45 to 75, measured in accordance with ASTM D2240; at least one circumferential groove reinforcement (3, 3', 3") reinforcing at least a bottom portion of at least one of the grooves and comprising a groove reinforcement rubber compound; a circumferential tread base layer arranged radially inwards of the tread cap and comprising a tread base layer compound, wherein the tread base layer compound has a Shore A hardness from 15 to 60, measured in accordance with ASTM D2240, and wherein the Shore A hardness of the tread cap compound is higher than the Shore A hardness of the tread base layer compound, and wherein the Shore A hardness of the groove reinforcement compound is higher than the Shore A hardness of the tread cap compound, and wherein the tire tread (10, 10', 10") is characterized in that the groove reinforcement rubber compound has a Shore A hardness from 80 to 100, measured in accordance with ASTM D2240.
A human-computer interface system comprising: an interface laminate, wherein said interface laminate comprises: an elastic membrane; a flexible substrate material bonded to the elastic membrane; a plurality of fluidic tactile actuators formed from the flexible substrate material; and a fluidic distribution laminate comprising: a first layer comprising a plurality of channels comprising a first flexible channel substrate bonded to the interface laminate flexible substrate, the plurality of channels configured to couple said plurality of fluidic tactile actuators to a pressurized working fluid; and a fluidic connector; and a plurality of control valves operably coupled to the plurality of fluidic tactile actuators and configured to affect flow of the pressurized working fluid. an elastic membrane; a flexible substrate material bonded to the elastic membrane; a plurality of fluidic tactile actuators formed from the flexible substrate material; and a fluidic distribution laminate comprising: a first layer comprising a plurality of channels comprising a first flexible channel substrate bonded to the interface laminate flexible substrate, the plurality of channels configured to couple said plurality of fluidic tactile actuators to a pressurized working fluid; and a fluidic connector; and
A system for adjusting a voltage droop threshold, comprising: a voltage-droop mitigation circuit configured to monitor voltage droop in a supply voltage (V DD) supplied to a circuit, and to perform voltage-droop mitigation for the circuit if the monitored voltage droop is equal to or greater than a droop threshold; wherein the voltage-droop mitigation circuit is configured to: perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and a performance monitor configured to track a number of clock cycles over which the voltage-droop mitigation circuit performs the voltage-droop mitigation within a time duration, to compare the number of clock cycles with a first threshold number, and to decrease both the droop threshold and the supply voltage if the number of clock cycles is below the first threshold number. a voltage-droop mitigation circuit configured to monitor voltage droop in a supply voltage (V DD) supplied to a circuit, and to perform voltage-droop mitigation for the circuit if the monitored voltage droop is equal to or greater than a droop threshold; wherein the voltage-droop mitigation circuit is configured to: perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and perform voltage-droop mitigation by reducing a frequency of an input clock signal (CLK_IN) to produce a reduced-frequency clock signal, and to output the reduced-frequency clock signal to the circuit; pass the input clock signal to the circuit when the voltage-droop mitigation is not being performed; and a performance monitor configured to track a number of clock cycles over which the voltage-droop mitigation circuit performs the voltage-droop mitigation within a time duration, to compare the number of clock cycles with a first threshold number, and to decrease both the droop threshold and the supply voltage if the number of clock cycles is below the first threshold number.
A flow meter system comprising: a flow meter configured to enable a first flow of a first fluid through the flow meter; and transmitter electronics coupled to the flow meter and configured to: calculate a first profile factor of the first fluid during the first flow, calculate a first meter factor corresponding to the first profile factor based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor. a flow meter configured to enable a first flow of a first fluid through the flow meter; and transmitter electronics coupled to the flow meter and configured to: calculate a first profile factor of the first fluid during the first flow, calculate a first meter factor corresponding to the first profile factor based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor. calculate a first profile factor of the first fluid during the first flow, calculate a first meter factor corresponding to the first profile factor based on a single correlation between a plurality of profile factors and a plurality of meter factors for multiple fluids of different viscosities, and calculate a first volume of the first fluid using the first meter factor.
A nanostructure comprising a core comprising indium phosphide and at least two shells, wherein at least one shell comprises ZnSe and at least one shell comprises ZnS, wherein the nanostructure displays a photoluminescence quantum yield between about 94% and about 100%, and wherein the nanostructure has a full width at half-maximum of less than 45 nm.
A composition comprising: a microemulsion; and a reductant dispersed in the composition; wherein the reductant is incorporated into the microemulsion; wherein the microemulsion comprises: (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and wherein the reductant is an in-situ chemical reductant for the chemical or abiotic reduction of a contaminant, and is selected from the group consisting of ferrous oxide, magnetite, hematite, maghemite, ferrous hydroxide, ferric hydroxide, goethite, akaganeite, lepidocrocite, ferroxyhyte, ferrihydrite, schwertmannite, green rust, fougerite, iron sulfide, troilite, greigite, pyrrhotite, mackinawite, marcasite, pyrite, siderite, vivianite, iron gluconate, iron sulfate, iron chloride, iron lactate, and combinations of any thereof. a microemulsion; and a reductant dispersed in the composition; wherein the reductant is incorporated into the microemulsion; wherein the microemulsion comprises: (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and (a) a first component selected from the group consisting of soapstock, acid oil of soapstock, a neutralized acid oil of soapstock, and any combinations thereof; and (b) a second component selected from the group consisting of ethoxylated monoglyceride, lecithin, sodium stearoyl lactylate, polylactate, ethyl lactate, a carboxylic acid, a salt of a carboxylic acid, and any combinations thereof; and
An end effector for use with a surgical instrument, the end effector comprising: (a) a first jaw, wherein the first jaw is configured to removably couple with a staple cartridge; (b) a second jaw movably coupled with the first jaw; (c) a blade assembly configured to translate relative to the first jaw in a proximal-distal direction, wherein the blade assembly comprises: (i) a cutting edge, and (ii) a distally presented wall, wherein the distally presented wall is proximal to the cutting edge; and (d) a lockout assembly comprising: (i) a resilient member, and (ii) a proximally presented wall, wherein the resilient member is configured to bias the blade assembly to a lockout position, wherein the proximally presented wall is configured to engage the distally presented wall of the first tab in the lockout position to prevent the blade assembly from translating distally relative to the first jaw; characterized in that the distally presented wall is provided on a first tab of the blade assembly and crosses a plane defined by the cutting edge and the said proximal-distal direction. (a) a first jaw, wherein the first jaw is configured to removably couple with a staple cartridge; (b) a second jaw movably coupled with the first jaw; (c) a blade assembly configured to translate relative to the first jaw in a proximal-distal direction, wherein the blade assembly comprises: (i) a cutting edge, and (ii) a distally presented wall, wherein the distally presented wall is proximal to the cutting edge; and (i) a cutting edge, and (ii) a distally presented wall, wherein the distally presented wall is proximal to the cutting edge; and (d) a lockout assembly comprising: (i) a resilient member, and (ii) a proximally presented wall, wherein the resilient member is configured to bias the blade assembly to a lockout position, wherein the proximally presented wall is configured to engage the distally presented wall of the first tab in the lockout position to prevent the blade assembly from translating distally relative to the first jaw; characterized in that the distally presented wall is provided on a first tab of the blade assembly and crosses a plane defined by the cutting edge and the said proximal-distal direction. (i) a resilient member, and (ii) a proximally presented wall, wherein the resilient member is configured to bias the blade assembly to a lockout position, wherein the proximally presented wall is configured to engage the distally presented wall of the first tab in the lockout position to prevent the blade assembly from translating distally relative to the first jaw;
An underwater power supply system comprising: a working apparatus arranged underwater and including at least one power receiving pad; a first battery unit detachably attached to the working apparatus and including a power supplying pad and a battery, the power supplying pad being configured to supply electric power to the power receiving pad in a non-contact state, the battery being electrically connected to the power supplying pad; a second battery unit including a power supplying pad and a battery, the power supplying pad being configured to supply the electric power to the power receiving pad in a non-contact state, the battery being electrically connected to the power supplying pad; and an underwater sailing body configured to shuttle between the working apparatus and a surface ship or between the working apparatus and an underwater station suspended from the surface ship, the underwater sailing body being configured to carry the second battery unit to the working apparatus, detach the first battery unit from the working apparatus, and attach the second battery unit to the working apparatus. a working apparatus arranged underwater and including at least one power receiving pad; a first battery unit detachably attached to the working apparatus and including a power supplying pad and a battery, the power supplying pad being configured to supply electric power to the power receiving pad in a non-contact state, the battery being electrically connected to the power supplying pad; a second battery unit including a power supplying pad and a battery, the power supplying pad being configured to supply the electric power to the power receiving pad in a non-contact state, the battery being electrically connected to the power supplying pad; and an underwater sailing body configured to shuttle between the working apparatus and a surface ship or between the working apparatus and an underwater station suspended from the surface ship, the underwater sailing body being configured to carry the second battery unit to the working apparatus, detach the first battery unit from the working apparatus, and attach the second battery unit to the working apparatus.
A beverage production device comprising a first dissolution chamber, said first dissolution chamber being configured for producing a beverage by mixing a beverage concentrate and a diluent and comprising: - at least one diluent inlet (11a, 11b) and - at least one liquid delivery outlet, - a bottom wall, the at least one liquid delivery outlet being set in said bottom wall, wherein the device comprises a second dilution chamber, said second dilution chamber comprising: - a top wall, and - at least one liquid inlet through the top wall, said liquid inlet being the liquid delivery outlet of the first dissolution chamber, characterized in that the second dilution chamber further comprises - at least one diluent inlet configured for introducing a diluent in the second dilution chamber and mixing said diluent with the liquid flowing from the at least one liquid inlet through the top wall. - at least one diluent inlet (11a, 11b) and - at least one liquid delivery outlet, - a bottom wall, the at least one liquid delivery outlet being set in said bottom wall, wherein the device comprises a second dilution chamber, said second dilution chamber comprising: - a top wall, and - at least one liquid inlet through the top wall, said liquid inlet being the liquid delivery outlet of the first dissolution chamber, characterized in that the second dilution chamber further comprises - at least one diluent inlet configured for introducing a diluent in the second dilution chamber and mixing said diluent with the liquid flowing from the at least one liquid inlet through the top wall. - a top wall, and - at least one liquid inlet through the top wall, said liquid inlet being the liquid delivery outlet of the first dissolution chamber, characterized in that the second dilution chamber further comprises - at least one diluent inlet configured for introducing a diluent in the second dilution chamber and mixing said diluent with the liquid flowing from the at least one liquid inlet through the top wall.