mhurhangee/ep-ind-claims huggingface dataset:
An internal combustion piston engine comprising an intake channel for introducing oxygen containing gas into cylinders of the engine, the engine further comprising an arrangement for introducing additional oxygen containing gas into the cylinders of the engine, the arrangement comprising: - a pressure medium source for supplying the additional oxygen containing gas, - at least one injection valve arranged in connection with a cylinder of the engine for introducing the additional oxygen containing gas into the cylinder of the engine, - a main flow conduit by means of which the pressure medium source is arranged in flow connection with the at least one injection valve, wherein the injection valve is provided with a pneumatically operated actuator device arranged to accomplish opening and closing of the injection valve under influence of the pressure medium to the actuator device, characterized in that - the arrangement for introducing additional oxygen containing gas comprises a control fluid conduit for introducing the pressure medium to the pneumatically operated actuator device of the injection valve, and that - the control fluid conduit is provided with a first control valve and a second control valve arranged parallel in the control fluid conduit for control the fluid communication to the pneumatically operated actuator device of the injection valve, and that - the control fluid conduit is provided with a switch valve arranged to provide a flow connection of the control fluid conduit alternatively with one of the first control valve and the second control valve. - a pressure medium source for supplying the additional oxygen containing gas, - at least one injection valve arranged in connection with a cylinder of the engine for introducing the additional oxygen containing gas into the cylinder of the engine, - a main flow conduit by means of which the pressure medium source is arranged in flow connection with the at least one injection valve, wherein the injection valve is provided with a pneumatically operated actuator device arranged to accomplish opening and closing of the injection valve under influence of the pressure medium to the actuator device, - the arrangement for introducing additional oxygen containing gas comprises a control fluid conduit for introducing the pressure medium to the pneumatically operated actuator device of the injection valve, and that - the control fluid conduit is provided with a first control valve and a second control valve arranged parallel in the control fluid conduit for control the fluid communication to the pneumatically operated actuator device of the injection valve, and that - the control fluid conduit is provided with a switch valve arranged to provide a flow connection of the control fluid conduit alternatively with one of the first control valve and the second control valve.
A multiple nozzle holder assembly with increased operating flexibility, comprising a main body provided with an inlet for a working fluid and with at least two outlets for said fluid, the inlet having a fluid connection to each outlet by means of a respective passage duct that is sectioned by corresponding valve means for flow control with automatic actuation, and further comprising at least three couplings for connection to respective atomizing nozzles and wherein in an operating configuration at least two of said at least three couplings each have a fluid connection to one of said at least two outlets, the multiple nozzle holder assembly being characterized in that it comprises an additional body which is provided with said at least three couplings and which is associated with said main body so that it can selectively move among several operating configurations at least two of which are delivery configurations.
An siRNA that reduces the amount of a VH4 antibody, wherein said VH4 antibody binds targets within the Central Nervous System, for use in a method of treating multiple sclerosis or clinically isolated syndrome in a patient, wherein the method comprises administering to said subject said siRNA, and wherein the VH4 antibody has at least two substitutions with respect to the germline sequence at codon positions selected from 31B, 32, 40, 56, 57, 60, 81, and 89.
Timepiece barrel arbor comprising a core itself comprising an abutment surface for an internal turn of a mainspring, an abutment surface from which protrudes a hook intended to be engaged in an eyelet of said internal turn and comprising an end surface serving as an abutment for the wall of the eyelet during winding of the mainspring, the core comprising, upstream of the hook in the wrapping direction of the mainspring, a clearance (13; 13') intended to receive the internal end of the mainspring, characterised in that the hook is located, in the axial direction of the barrel arbor, between a first part and a second part of the abutment surface and in that the wall (15; 15') of the clearance (13; 13') comprises a recess (23; 23') in the shape of an arc of a circle which adjoins said end surface or an extension of said end surface without forming an edge with said end surface, respectively with said extension, in order to reduce the stresses to which the hook is subjected during winding of the mainspring.
An expression vector or a combination of at least two expression vectors comprising at least (a) a polynucleotide encoding a product of interest or an insertion site for incorporating a polynucleotide encoding a product of interest; (b) a polynucleotide encoding a first selectable marker (sm I); (c) a polynucleotide encoding a second selectable marker (sm II), which differs from the first selectable marker (sm I), wherein the activity of the selectable marker (sm I) or (sm II) is at least partially influenced by the activity of the other selectable marker and wherein the selectable markers (sm I) and (sm II) are involved in the folate metabolism and wherein the first selectable marker (sm I) is a folate transporter and the second selectable marker (sm II) is DHFR or a functional variant thereof. (a) a polynucleotide encoding a product of interest or an insertion site for incorporating a polynucleotide encoding a product of interest; (b) a polynucleotide encoding a first selectable marker (sm I); (c) a polynucleotide encoding a second selectable marker (sm II), which differs from the first selectable marker (sm I),
An isolated polypeptide comprising the amino acid sequence: wherein X13 is a lipid modified K and X25 is a lipid modified K. X13 is a lipid modified K and X25 is a lipid modified K.
Aqueous adhesive composition comprising at least one dispersion or one solution of at least one polymer or of one copolymer obtained starting from acrylic, methacrylic, acrylate, methacrylate or vinyl, vinyl esters, or polyurethane monomers, and at least one surfactant chosen from the anionic and non-ionic surfactants, characterized in that: - its surface tension, measured using a goniometer on a glass plate at 23°C and 49% relative humidity, ranges from 40 to 55° of average contact angle, and - its volume expansion capacity ranges from 10 to 50%. - its surface tension, measured using a goniometer on a glass plate at 23°C and 49% relative humidity, ranges from 40 to 55° of average contact angle, and - its volume expansion capacity ranges from 10 to 50%.
Refrigeration vehicle comprising at least one refrigeration space, which can be cooled via at least one supplemental heat exchanger, the supplemental heat exchanger being located in the refrigeration space and being connected to other components establishing a heat exchange loop and being able to exchange heat with an evaporator for low-temperature liquefied combustible gas, wherein - the heat exchange loop comprises a first heat exchanger, which is arranged in the refrigeration vehicle in such a way, that the first heat exchanger is able to exchange heat with the evaporator and that the first heat exchanger is connected to the supplemental heat exchanger in the refrigeration space; and - the refrigeration vehicle comprises a first nitrogen tank for liquid nitrogen, nitrogen lines, a nitrogen pump, a nitrogen outlet and a nitrogen heat exchanger, arranged in a refrigeration unit together with the supplemental heat exchanger. - the heat exchange loop comprises a first heat exchanger, which is arranged in the refrigeration vehicle in such a way, that the first heat exchanger is able to exchange heat with the evaporator and that the first heat exchanger is connected to the supplemental heat exchanger in the refrigeration space; and - the refrigeration vehicle comprises a first nitrogen tank for liquid nitrogen, nitrogen lines, a nitrogen pump, a nitrogen outlet and a nitrogen heat exchanger, arranged in a refrigeration unit together with the supplemental heat exchanger.
A nanochannel array comprising a material comprising a surface having a plurality of channels in the material of the surface, said channels having a trench width of less than 150 nanometers and greater than 2 nanometers; wherein: the trench width is defined as the width between opposing interior wall surfaces of the channel; characterised in that said channels have a trench depth of less than 200 nanometers and greater than 2 nanometers; wherein at least some of the channels are surmounted by sealing material having a thickness of at least 2 nanometers such that said at least some of the channels are completely enclosed, and wherein the trench depth is assigned as the distance between the surface of the solid material at the bottom of the channel and the sealing material above the channel center. a material comprising a surface having a plurality of channels in the material of the surface, said channels having a trench width of less than 150 nanometers and greater than 2 nanometers; wherein: the trench width is defined as the width between opposing interior wall surfaces of the channel; characterised in that said channels have a trench depth of less than 200 nanometers and greater than 2 nanometers; wherein at least some of the channels are surmounted by sealing material having a thickness of at least 2 nanometers such that said at least some of the channels are completely enclosed, and wherein the trench depth is assigned as the distance between the surface of the solid material at the bottom of the channel and the sealing material above the channel center.
A doped polyaniline comprising a dopant that is a compound having the structure: or a salt thereof, wherein R 2 is chosen from substituted or unsubstituted (C 1 -C 10)hydrocarbyl- and substituted or unsubstituted (C 1 -C 10)hydrocarbyl-O-, L 1 is substituted or unsubstituted (C 1 -C 10)hydrocarbylene, L 2 is chosen from a bond, -O-, -O-C -, and -NH-C -, and n is about 1 to about 100,000; a sulfonatocalixarene, or a salt thereof; a cyclodextrin sulfate, or a salt thereof; or a combination thereof. a compound having the structure: or a salt thereof, wherein R 2 is chosen from substituted or unsubstituted (C 1 -C 10)hydrocarbyl- and substituted or unsubstituted (C 1 -C 10)hydrocarbyl-O-, L 1 is substituted or unsubstituted (C 1 -C 10)hydrocarbylene, L 2 is chosen from a bond, -O-, -O-C -, and -NH-C -, and n is about 1 to about 100,000; R 2 is chosen from substituted or unsubstituted (C 1 -C 10)hydrocarbyl- and substituted or unsubstituted (C 1 -C 10)hydrocarbyl-O-, L 1 is substituted or unsubstituted (C 1 -C 10)hydrocarbylene, L 2 is chosen from a bond, -O-, -O-C -, and -NH-C -, and n is about 1 to about 100,000; a sulfonatocalixarene, or a salt thereof; a cyclodextrin sulfate, or a salt thereof; or a combination thereof.
A paging method, comprising: receiving, by a terminal device, a paging message transmitted by an access network device, the paging message comprising first indication information, and the first indication information being used to indicate that delay in return of a paging response message is allowed; determining, by the terminal device, whether to delay returning the paging response message; and in a case of determining to delay returning the paging response message, determining, by the terminal device, a delay time of the paging response message according to second time information for delaying returning the paging response message, the second time information being configured by a core network device during network registration of the terminal device. receiving, by a terminal device, a paging message transmitted by an access network device, the paging message comprising first indication information, and the first indication information being used to indicate that delay in return of a paging response message is allowed; determining, by the terminal device, whether to delay returning the paging response message; and in a case of determining to delay returning the paging response message, determining, by the terminal device, a delay time of the paging response message according to second time information for delaying returning the paging response message, the second time information being configured by a core network device during network registration of the terminal device.
A microcondenser device for an evaporative emission control system, comprising: a housing (52, 452) having a lower wall (70, 462) and at least one side wall (72, 74, 76, 78, 464, 466, 468, 470) extending upward from the lower wall, the lower wall (70, 462) and the at least one side wall (72, 74, 76, 78,464, 466, 468, 470) together define a chamber (80, 474) in the housing (52, 452), the housing (52, 452) having an inlet (54, 454) for receiving fuel vapor and admitting fuel vapor into the chamber (80, 474) and a condensation outlet (56, 456) for discharging condensed fuel vapor from the fuel vapor in the chamber (80, 474); a porous element (100, 458) disposed in the chamber (80, 474) of housing (52, 452) and fluidly interposed between the inlet (54, 454) and the condensation outlet (56, 456) for absorbing the fuel vapor received through the inlet (54, 454); a thermoelectric element (66, 460) in thermal contact with the porous element (100, 458) for removing heat from the fuel vapor absorbed by the porous element (100, 458) to condense the fuel vapor, the thermoelectric element (66, 460) supported by the at least one side wall (72, 74, 76, 78, 464, 466, 468, 470) in spaced relation relative to the lower wall (70, 462); wherein the housing (52, 452) has a vapor outlet (62, 462) for discharging fuel vapor that remains vaporized after passing through the porous element (100, 458), the porous element (100, 458) fluidly interposed between the inlet (54, 454) and the vapor outlet (62, 462); and characterized in that the porous element (100, 458) has an increased porosity adjacent a first side of the porous element (100, 458) disposed adjacent the inlet (54, 454) than a second side adjacent the vapor outlet (62, 462). a housing (52, 452) having a lower wall (70, 462) and at least one side wall (72, 74, 76, 78, 464, 466, 468, 470) extending upward from the lower wall, the lower wall (70, 462) and the at least one side wall (72, 74, 76, 78,464, 466, 468, 470) together define a chamber (80, 474) in the housing (52, 452), the housing (52, 452) having an inlet (54, 454) for receiving fuel vapor and admitting fuel vapor into the chamber (80, 474) and a condensation outlet (56, 456) for discharging condensed fuel vapor from the fuel vapor in the chamber (80, 474); a porous element (100, 458) disposed in the chamber (80, 474) of housing (52, 452) and fluidly interposed between the inlet (54, 454) and the condensation outlet (56, 456) for absorbing the fuel vapor received through the inlet (54, 454); a thermoelectric element (66, 460) in thermal contact with the porous element (100, 458) for removing heat from the fuel vapor absorbed by the porous element (100, 458) to condense the fuel vapor, the thermoelectric element (66, 460) supported by the at least one side wall (72, 74, 76, 78, 464, 466, 468, 470) in spaced relation relative to the lower wall (70, 462); wherein the housing (52, 452) has a vapor outlet (62, 462) for discharging fuel vapor that remains vaporized after passing through the porous element (100, 458), the porous element (100, 458) fluidly interposed between the inlet (54, 454) and the vapor outlet (62, 462); and
A method in a wireless terminal comprising: determining a first power value for a first set of time periods of a subcarrier frequency based on at least one first transmission power control parameter; determining a second power value for a second set of time periods of the subcarrier frequency based on at least one second transmission power control parameter; determining whether a particular time period belongs to the first set of time periods or the second set of time periods; if the particular time period belongs to the first set of time periods, transmitting on the subcarrier frequency in the particular time period with a transmission power based on the first power value; and if the particular time period belongs to the second set of time periods, transmitting on the subcarrier frequency in the particular time period with a transmission power based on the second power value. determining a first power value for a first set of time periods of a subcarrier frequency based on at least one first transmission power control parameter; determining a second power value for a second set of time periods of the subcarrier frequency based on at least one second transmission power control parameter; determining whether a particular time period belongs to the first set of time periods or the second set of time periods; if the particular time period belongs to the first set of time periods, transmitting on the subcarrier frequency in the particular time period with a transmission power based on the first power value; and if the particular time period belongs to the second set of time periods, transmitting on the subcarrier frequency in the particular time period with a transmission power based on the second power value.
A variable stiffness structure configured to support a variable load, the variable stiffness structure comprising: a positive stiffness element coupled to the variable load; a negative stiffness element; and a hydraulic system coupled to the positive and negative stiffness elements (208, 206) and configured to adjust a relative position of the positive and negative stiffness elements (208, 206) in response to a change in the variable load, while the variable stiffness structure supports the variable load; characterized in that the hydraulic system comprises an actuator and is configured to disengage the negative stiffness element prior to adjusting the relative position of the positive and negative stiffness elements (208, 206), and to re-engage the negative stiffness element after the adjusting the relative position of the positive and negative stiffness elements (208, 206). a positive stiffness element coupled to the variable load; a negative stiffness element; and a hydraulic system coupled to the positive and negative stiffness elements (208, 206) and configured to adjust a relative position of the positive and negative stiffness elements (208, 206) in response to a change in the variable load, while the variable stiffness structure supports the variable load; characterized in that the hydraulic system comprises an actuator and is configured to disengage the negative stiffness element prior to adjusting the relative position of the positive and negative stiffness elements (208, 206), and to re-engage the negative stiffness element after the adjusting the relative position of the positive and negative stiffness elements (208, 206).
An oil tank ventilation device for a hydraulic brake unit of a tramcar, comprising an electrical element protection case, an integrated valve block and an oil tank, wherein the ventilation device further comprises a vent plug, a sealing ring and a gas guide pipe; a gas guide hole which is a through-hole structure arranged at an upper end inside the integrated valve block; the vent plug is arranged inside the electrical element protection case, and performs gas exchange with the outside through a harness hole provided on the electrical element protection case; the vent plug is mounted in the gas guide hole on the integrated valve block which is on one side of the interior of the electrical element protection case, and the vent plug is coaxial with the gas guide hole and is communicated with an inner chamber of the oil tank through the gas guide hole; the sealing ring is mounted at a junction of the vent plug and the integrated valve block; and, one end of the gas guide pipe is mounted with the gas guide hole on the integrated valve block which is on one side of the interior of the oil tank, while another end thereof is stretched into an air chamber above the interior of the oil tank, and the gas guide pipe is coaxial and communicated with the gas guide hole.
A negative electrode active material for a lithium secondary battery, the negative electrode active material comprising: first artificial graphite having an average particle diameter of 15 μm to 20 μm measured by using a laser diffraction method; and second artificial graphite having an average particle diameter of 3 μm to 5 μm measured by using a laser diffraction method, wherein the first artificial graphite comprises a secondary artificial graphite particle, in which at least one primary artificial graphite particle is agglomerated, and a carbon coating layer formed on a surface of the secondary artificial graphite particle, a weight ratio of the first artificial graphite to the second artificial graphite is in a range of 85:15 to 95:5, and the agglomeration of the primary artificial graphite particles is performed by adding a pitch and a resin binder together to a reactor and rotating the reactor at a speed of 2,000 rpm to 4,000 rpm at a temperature of 1,400°C to 1,600°C. first artificial graphite having an average particle diameter of 15 μm to 20 μm measured by using a laser diffraction method; and second artificial graphite having an average particle diameter of 3 μm to 5 μm measured by using a laser diffraction method,