mhurhangee/ep-ind-claims huggingface dataset:
A humidity sensor element comprising: a dielectric substrate; a nonporous conductive electrode having a first conductive member electrically coupled thereto, wherein the nonporous conductive electrode is disposed on the dielectric substrate; a permeable conductive electrode having a second conductive member electrically coupled thereto, wherein the permeable conductive electrode has a thickness in a range of from 4 to 10 nanometers, wherein the permeable conductive electrode is parallel to the nonporous conductive electrode, and wherein the permeable conductive electrode is permeable by water vapor; a detection layer sandwiched between the nonporous conductive electrode and the permeable conductive electrode, wherein the detection layer comprises a copolymer having monomeric units comprising and wherein M represents H, or an alkali metal. a dielectric substrate; a nonporous conductive electrode having a first conductive member electrically coupled thereto, wherein the nonporous conductive electrode is disposed on the dielectric substrate; a permeable conductive electrode having a second conductive member electrically coupled thereto, wherein the permeable conductive electrode has a thickness in a range of from 4 to 10 nanometers, wherein the permeable conductive electrode is parallel to the nonporous conductive electrode, and wherein the permeable conductive electrode is permeable by water vapor; a detection layer sandwiched between the nonporous conductive electrode and the permeable conductive electrode, wherein the detection layer comprises a copolymer having monomeric units comprising and wherein M represents H, or an alkali metal.
A glazing usable as a reflective projection screen, the glazing comprising a front face and a rear face, characterized in that: said glazing comprises: - a variable light scattering system comprising a functional film capable of switching between a transparent state and a scattering state, - a coating comprising at least one mirror layer, said coating being separated from the front face at least by the functional film, said glazing exhibits: - a light transmission LT of less than 20%, - a light reflection LR of greater than 25%. said glazing comprises: - a variable light scattering system comprising a functional film capable of switching between a transparent state and a scattering state, - a coating comprising at least one mirror layer, said coating being separated from the front face at least by the functional film, - a variable light scattering system comprising a functional film capable of switching between a transparent state and a scattering state, - a coating comprising at least one mirror layer, said coating being separated from the front face at least by the functional film, said glazing exhibits: - a light transmission LT of less than 20%, - a light reflection LR of greater than 25%. - a light transmission LT of less than 20%, - a light reflection LR of greater than 25%.
Bed, with a head section (3, 3.1) extending over the lying surface (2, 2.1) in a vertical direction, and with two pivotable panel elements (6, 6.1) configured to be sound-absorbing, wherein at least one acoustic panel (5, 5.1, 5.2, 5.3) is arranged at the head section (3, 3.1) in the direction towards its flat first extension, and which comprises the two panel elements (6, 6.1), which can be pivoted out of a position in the plane of the head section in which they are not used, into a position of use, which is at an angle to the plane of the head section (3, 3.1), the panel elements (6, 6.1) of which, with regard to their pivot direction, can be pivoted in relation to a back section which is fixed in position between the two panel elements (6, 6.1), wherein the pivot axes (11, 11.1) of the two panel elements (6, 6.1), connected to the back section by a joint, are spaced apart from one another at a distance interval in the direction of the width of the head piece, and the width of the back section is configured so that, when the two panel elements (6, 6.1) pivot out with their outer sides towards one another into their position when in use, they exhibit a slight distance interval from one another or are just in contact with one another.
A nonwoven fabric sheet comprising crimped multicomponent fibers, wherein the fibers comprise two different polymer components and distributed over the cross section of the fiber in a side by side arrangement, characterized in that the interface line, contained in the radial plane of the fibers, between the two polymer components and is curved and its curvature (c) is c = h b = 0.05 to 0.25 wherein the baseline length (b) is the length of the imaginary straight baseline connecting the two endpoints of the curved interface line, and the bow height (h) is the distance of the crest of the curved interface line from the baseline, wherein the interface line has the shape of a single arc devoid of an inflection point at which the curvature changes sign. the interface line, contained in the radial plane of the fibers, between the two polymer components and is curved and its curvature (c) is c = h b = 0.05 to 0.25 wherein the baseline length (b) is the length of the imaginary straight baseline connecting the two endpoints of the curved interface line, and the bow height (h) is the distance of the crest of the curved interface line from the baseline, wherein the interface line has the shape of a single arc devoid of an inflection point at which the curvature changes sign.
A device for connecting an electric power generator to an HVDC transmission system (190, 290, 390, 490, 590, 690, 790), the device comprising a first unit for converting an AC output voltage from the electric power generator to a DC input voltage for the HVDC transmission system, the first unit comprising a transformer (120, 220, 321, 421, 520, 620, 720) and a full-bridge rectifier (110, 210, 310, 410, 510, 610, 710), and a second unit for generating control voltages and/or control currents in the transformer and/or in the electric power generator while the first unit converts the AC output voltage to the DC input voltage, the second unit comprising a PWM full-bridge converter (130, 230, 331, 431, 530, 531, 630, 631, 730) adapted to receive the AC output voltage from the electric power generator or an AC voltage based on said AC output voltage, wherein the transformer of the first unit comprises a set of primary windings for receiving the AC output voltage from the electric power generator, a first set of secondary windings coupled to an input of the full-bridge rectifier of the first unit, and a second set of secondary windings coupled to an input of the PWM full-bridge converter of the second unit, wherein an output of the PWM full-bridge converter is coupled to the HVDC transmission system or to a DC voltage system (291, 491, 691) having a lower DC voltage than the HVDC transmission system, wherein the electric power generator comprises a generator unit (340, 440, 540, 640, 740) having a stator and a rotatably supported rotor, the stator comprising a first set of windings and a second set of windings, the rotor being adapted to induce electrical voltage in the first set of windings and in the second set of windings when the rotor is rotated relative to the stator, wherein the set of primary windings of the transformer of the first unit is coupled to the first set of windings of the stator, wherein the second unit comprises a further PWM full-bridge converter (531, 631) having an input coupled to the second set of windings of the stator, and wherein an output of the further PWM full-bridge converter is coupled to the HVDC transmission system or to a DC voltage system (291, 491, 691) having a lower DC voltage than the HVDC transmission system.
A method for cultivating paralarvae of the common octopus, Octopus vulgaris, placed in a culture tank containing water, said method characterized in that it comprises the addition of prey selected from: - gammarideas of the type Jassa spp., - caprelids of the types Phtisica spp. and / or Caprella spp. or - combinations of these to said culture tank. - gammarideas of the type Jassa spp., - caprelids of the types Phtisica spp. and / or Caprella spp. or - combinations of these to said culture tank.
Method for estimating a value of a braking resistor (Rf) used in a power converter connected to an electric motor, said power converter comprising: - a DC power-supply bus comprising a first power supply line and a second power supply line; - a bus capacitor (Cbus) connected to the first power supply line and to the second power supply line; - an inverter module connected to the DC power-supply bus and to the electric motor; - a braking cell (CelF) connected to the first power supply line and to the second power supply line and comprising a switching unit (Sw), a diode connected in series with the switching unit and the braking resistor (Rf) connected in parallel to said diode, said method being characterized in that it is implemented during braking of the electric motor and in that it comprises: - determining the value of the capacitance of the bus capacitor when the switching unit is in an open state; - determining the value of the braking resistor (Rf) based on the value of the capacitance of the bus capacitor, on the voltage (Vbus) of the DC power-supply bus and on the current (Im) generated by the electric motor during braking when the switching unit is in a closed state. - a DC power-supply bus comprising a first power supply line and a second power supply line; - a bus capacitor (Cbus) connected to the first power supply line and to the second power supply line; - an inverter module connected to the DC power-supply bus and to the electric motor; - a braking cell (CelF) connected to the first power supply line and to the second power supply line and comprising a switching unit (Sw), a diode connected in series with the switching unit and the braking resistor (Rf) connected in parallel to said diode, - determining the value of the capacitance of the bus capacitor when the switching unit is in an open state; - determining the value of the braking resistor (Rf) based on the value of the capacitance of the bus capacitor, on the voltage (Vbus) of the DC power-supply bus and on the current (Im) generated by the electric motor during braking when the switching unit is in a closed state.
Assembly for a drug delivery device, comprising: - a piston rod, and - a force transfer subassembly (16, 17), the force transfer subassembly being arranged and configured, in a driving mode of operation of the assembly, to transfer a driving force to the piston rod in order to drive the piston rod, the force transfer subassembly comprising - a first force transfer member, and - a second force transfer member, wherein the first force transfer member and the second force transfer member are operatively coupled to each other via a force-sensitive coupling to transfer the driving force to the piston rod, and wherein the force-sensitive coupling is arranged and configured to be released, when an excessive force acts on the force-sensitive coupling, in order to switch the assembly from the driving mode of operation into a security mode of operation. - a piston rod, and - a force transfer subassembly (16, 17), the force transfer subassembly being arranged and configured, in a driving mode of operation of the assembly, to transfer a driving force to the piston rod in order to drive the piston rod, the force transfer subassembly comprising - a first force transfer member, and - a second force transfer member, wherein
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: checking whether a value of queuing delay of a packet data convergence protocol service data unit, PDCP SDU, is above a threshold; and generating and transmitting a PDCP protocol data unit, PDU, including the PDCP SDU in a data field and a time stamp for the PDCP SDU, when the value of the queuing delay is above the threshold, wherein a value of the time stamp for the PDCP SDU is set to a time when the PDCP SDU is received from the upper layer, wherein the PDCP PDU further includes a data/control, D/C, field, a PDCP sequence number, SN, field, and wherein only the data field in the PDCP PDU is ciphered and not the D/C field, the PDCP SN field and the time stamp. checking whether a value of queuing delay of a packet data convergence protocol service data unit, PDCP SDU, is above a threshold; and generating and transmitting a PDCP protocol data unit, PDU, including the PDCP SDU in a data field and a time stamp for the PDCP SDU, when the value of the queuing delay is above the threshold, wherein a value of the time stamp for the PDCP SDU is set to a time when the PDCP SDU is received from the upper layer, wherein the PDCP PDU further includes a data/control, D/C, field, a PDCP sequence number, SN, field, and wherein only the data field in the PDCP PDU is ciphered and not the D/C field, the PDCP SN field and the time stamp.
A heart valve assembly, comprising: - a wire frame comprising: - an anchor section having an annular ring of cells that are configured to define an annular concave belt having peripheral inflow tips, outflow tips and valleys between the inflow tips and the outflow tips; and - a valve support section having a generally cylindrical body with a concave neck area provided adjacent an outflow end, and connectors provided along the outflow end, wherein the anchor section and the valve support section are provided in separate pieces, the neck area of the cylindrical body is inserted through the anchor section and the connectors are coupled to the valleys; and - a leaflet assembly having a plurality of leaflets that are stitched to the cylindrical body and which are positioned on an inflow side of the neck section, characterized in that: the anchor section is radially concaved at the valleys and thereby defines an annular space; and the concave neck area of the valve support section is seated inside the valleys of the anchor section. - a wire frame comprising: - an anchor section having an annular ring of cells that are configured to define an annular concave belt having peripheral inflow tips, outflow tips and valleys between the inflow tips and the outflow tips; and - a valve support section having a generally cylindrical body with a concave neck area provided adjacent an outflow end, and connectors provided along the outflow end, wherein the anchor section and the valve support section are provided in separate pieces, the neck area of the cylindrical body is inserted through the anchor section and the connectors are coupled to the valleys; and - a leaflet assembly having a plurality of leaflets that are stitched to the cylindrical body and which are positioned on an inflow side of the neck section, characterized in that: the anchor section is radially concaved at the valleys and thereby defines an annular space; and the concave neck area of the valve support section is seated inside the valleys of the anchor section. the anchor section is radially concaved at the valleys and thereby defines an annular space; and the concave neck area of the valve support section is seated inside the valleys of the anchor section.
A gas turbine combustor system comprising: a casing; a combustor provided in the casing to combust fuel and oxidant; a cylinder surrounding a periphery of the combustor to form a first annular space and a second annular space, the first annular space being formed between the cylinder and the combustor, the second annular space being formed between the casing and the cylinder; an inner pipe penetrating the casing and the cylinder for guiding a first fluid into the first annular space; an outer pipe joined to the casing for guiding a second fluid into the second annular space, the outer pipe having the inner pipe inserted through an interior of the outer pipe, a temperature of the second fluid guided by the outer pipe being lower than a temperature of the first fluid guided by the inner pipe; a fluid introduction part which introduces the second fluid to an annular passage between the outer pipe and the inner pipe, characterized by a first inner pipe protruding part (91, 121) protruding from an outer peripheral surface of the inner pipe to a radial outside; and a first outer pipe protruding part (92, 122) protruding from an inner peripheral surface of the outer pipe to a radial inside, the first outer pipe protruding part (92, 122) having a fitting groove (93, 123) fitted to the first inner pipe protruding part (91, 121) and penetrating in an axial direction of the outer pipe to enable the prevention of the rotation of the inner pipe in the circumferential direction. a casing; a combustor provided in the casing to combust fuel and oxidant; a cylinder surrounding a periphery of the combustor to form a first annular space and a second annular space, the first annular space being formed between the cylinder and the combustor, the second annular space being formed between the casing and the cylinder; an inner pipe penetrating the casing and the cylinder for guiding a first fluid into the first annular space; an outer pipe joined to the casing for guiding a second fluid into the second annular space, the outer pipe having the inner pipe inserted through an interior of the outer pipe, a temperature of the second fluid guided by the outer pipe being lower than a temperature of the first fluid guided by the inner pipe; a fluid introduction part which introduces the second fluid to an annular passage between the outer pipe and the inner pipe, characterized by a first inner pipe protruding part (91, 121) protruding from an outer peripheral surface of the inner pipe to a radial outside; and a first outer pipe protruding part (92, 122) protruding from an inner peripheral surface of the outer pipe to a radial inside, the first outer pipe protruding part (92, 122) having a fitting groove (93, 123) fitted to the first inner pipe protruding part (91, 121) and penetrating in an axial direction of the outer pipe to enable the prevention of the rotation of the inner pipe in the circumferential direction.
A power module (100-1, 100-2, 100-3, 100-4), comprising: a primary converting unit comprising a first active device unit; a secondary converting unit comprising a second active device unit; a transformer comprising a primary unit and a secondary unit, wherein the primary unit is connected to the primary converting unit, and the secondary unit is connected to the secondary converting unit; a first heat dissipating unit on which the primary unit and the first active device unit are disposed; a second heat dissipating unit on which the secondary unit and the second active device unit are disposed; and an insulating plate comprising an insulating plate body and a semi-conducting layer disposed on a surface of the insulating plate body; wherein the primary converting unit, the primary unit and the first heat dissipating unit are located at a first side of the insulating plate, the secondary converting unit, the secondary unit and the second heat dissipating unit are located at a second side of the insulating plate, and the semi-conducting layer covers projections of the transformer, the primary converting unit and the secondary converting unit on the insulating plate. a primary converting unit comprising a first active device unit; a secondary converting unit comprising a second active device unit; a transformer comprising a primary unit and a secondary unit, wherein the primary unit is connected to the primary converting unit, and the secondary unit is connected to the secondary converting unit; a first heat dissipating unit on which the primary unit and the first active device unit are disposed; a second heat dissipating unit on which the secondary unit and the second active device unit are disposed; and an insulating plate comprising an insulating plate body and a semi-conducting layer disposed on a surface of the insulating plate body; wherein the primary converting unit, the primary unit and the first heat dissipating unit are located at a first side of the insulating plate, the secondary converting unit, the secondary unit and the second heat dissipating unit are located at a second side of the insulating plate, and the semi-conducting layer covers projections of the transformer, the primary converting unit and the secondary converting unit on the insulating plate.
A pulsed sputtering system, comprising: a plasma chamber enclosing a magneton group comprising a first magnetron, a second magnetron, and a third magnetron, and each magnetron is coupled to a corresponding one of three targets; a first power source coupled to the first magnetron and the second magnetron, the first power source configured to apply a first voltage at the first magnetron that alternates between positive and negative relative to the second magnetron during each of multiple cycles; a second power source coupled to the third magnetron and the second magnetron, the second power source configured to apply a second voltage to the third magnetron that alternates between positive and negative relative to the second electrode during each of the multiple cycles; and a controller configured to control the first power source and the second power source so that the magnetron group sputters over each entire cycle by phase-synchronizing the first voltage with the second voltage, so both, the first voltage and the second voltage, are simultaneously negative relative to the second magnetron during a first part of each cycle to sputter from the first magnetron and the third magnetron and simultaneously positive relative to the second magnetron during a second part of each cycle to sputter from the second magnetron. a plasma chamber enclosing a magneton group comprising a first magnetron, a second magnetron, and a third magnetron, and each magnetron is coupled to a corresponding one of three targets; a first power source coupled to the first magnetron and the second magnetron, the first power source configured to apply a first voltage at the first magnetron that alternates between positive and negative relative to the second magnetron during each of multiple cycles; a second power source coupled to the third magnetron and the second magnetron, the second power source configured to apply a second voltage to the third magnetron that alternates between positive and negative relative to the second electrode during each of the multiple cycles; and a controller configured to control the first power source and the second power source so that the magnetron group sputters over each entire cycle by phase-synchronizing the first voltage with the second voltage, so both, the first voltage and the second voltage, are simultaneously negative relative to the second magnetron during a first part of each cycle to sputter from the first magnetron and the third magnetron and simultaneously positive relative to the second magnetron during a second part of each cycle to sputter from the second magnetron.
A lubricating oil composition, which is a lubricating oil for transmission comprising: a mineral base oil having kinematic viscosity at 100°C of no less than 1.5 mm 2 /s and no more than 5 mm 2 /s, and %C P of no less than 90obtained by a method compliant with ASTM D 3238; and a copolymer of an α-olefin and an α,β-ethylenic unsaturated dicarboxylic acid diester, the copolymer having a weight average molecular weight of no more than 15000, wherein the content of the component in the lubricating oil composition is no less than 5 mass % and no more than 40 mass % based on the total amount of the composition. a mineral base oil having kinematic viscosity at 100°C of no less than 1.5 mm 2 /s and no more than 5 mm 2 /s, and %C P of no less than 90obtained by a method compliant with ASTM D 3238; and a copolymer of an α-olefin and an α,β-ethylenic unsaturated dicarboxylic acid diester, the copolymer having a weight average molecular weight of no more than 15000,