mhurhangee/ep-ind-claims huggingface dataset:
A patch comprising a support and a pressure-sensitive adhesive layer, wherein the pressure-sensitive adhesive layer comprises asenapine and/or a pharmaceutically acceptable salt thereof, a silicone-based pressure-sensitive adhesive base, and a release control agent, wherein the release control agent is at least one selected from the group consisting of oleic acid, magnesium aluminometasilicate, and N-methyl-2-pyrrolidone, and wherein the ratio of the maximum skin permeation rate of asenapine to the minimum skin permeation rate from the time when the maximum skin permeation rate is reached to 24 hours is less than 1.62. wherein the pressure-sensitive adhesive layer comprises asenapine and/or a pharmaceutically acceptable salt thereof, a silicone-based pressure-sensitive adhesive base, and a release control agent, wherein the release control agent is at least one selected from the group consisting of oleic acid, magnesium aluminometasilicate, and N-methyl-2-pyrrolidone, and wherein the ratio of the maximum skin permeation rate of asenapine to the minimum skin permeation rate from the time when the maximum skin permeation rate is reached to 24 hours is less than 1.62.
A wire protecting member for covering an outer periphery of a wire harness, comprising: a mesh which is formed by polyolefin fibers, wherein a plurality of the meshes are stacked together, wherein an adhesive layer is provided on a surface of the mesh.
A connector for a runner in a suspended ceiling comprising an end tab and an end tab receiving pocket, the end tab having a lead end with an edge and the receiving pocket being rearward of the end tab, the end tab having a body with generally planar portions rearward of the lead end, the material of the planar body portions defining a plane, the pocket being proportioned to receive the lead end of an identical connector, the pocket having a wall lying in a zone lateral of the plane of the body portions, the wall having a forward portion flared outwardly away from the plane of the planar body portions, characterised by the lead end being bent to one side out of the plane of said body portions to form a lead angle, the periphery of the wall being free of attachment from surrounding parts of the connector along a substantial portion of its length rearward of the flared portion whereby the wall operates as a resilient spring, the end tab having a locking projection and a zone for receiving and interlocking with the projection of an identical connector, the wall being arranged to bear against the end tab of the identical connector and maintain the projection of the identical connector in its receiving zone, the configuration of the end tab requiring the wall to deflect laterally outwardly when the end tab of the identical connector is being forced into the pocket, the forward outwardly flared portion of the pocket wall and lead angle portion of the identical connector inter-engaging in a smooth surface-to-surface sliding contact when the end tab of the identical connector is being received in the pocket.
A gas analyser for measuring the concentration of formaldehyde in ambient air within an enclosed environment, the gas analyser comprising a sample chamber in gaseous communication with ambient air, at least one ultraviolet light source, a detector configured to receive ultraviolet light emitted by the at least one ultraviolet light source and passed through the sample chamber, and a processor, the detector comprising at least one photosensor sensitive to ultraviolet light emitted by the at least one ultraviolet light source and operable to produce a plurality of measured ultraviolet light signals indicative of sensed ultraviolet light in each of a plurality of wavelength bands, the plurality of measured ultraviolet light signals including at least a first measured ultraviolet light signal indicative of sensed ultraviolet light in at least some of a measurement range of 337.5nm to 346nm or 325nm to 332nm, and a second said measured ultraviolet light signal indicative of sensed ultraviolet light in at least some of a reference range of 332nm to 337 nm, 347nm to 350nm or 356nm to 370nm, wherein the processor is configured to generate a measurement output signal indicative of the concentration of formaldehyde in ambient air taking into account the first and second measured ultraviolet light signals and at least one further signal which is dependent on the concentration of nitrogen dioxide in ambient air and at least partially independent of the first and second measured ultraviolet light signals.
A control system for controlling a gas turbine system, configured to: receive sensed operation parameters related to the operation of the gas turbine system; utilize the sensed operation parameters in a first analyzer configured to generate first characteristics related to degradation of the gas turbine system; utilize the sensed operation parameters in a second analyzer configured to generate second characteristics related to thermal characteristics of the gas turbine system, wherein the thermal characteristics include thermal stresses present in the gas turbine system; utilize the first characteristic related to degradation of the gas turbine system, the second characteristics related to thermal characteristics of the gas turbine system, and a third characteristic generated by an operator behavior analyzer, related to operator behaviors related to the current operation of the gas turbine system to generate remaining useful life characteristics of components of the gas turbine system; and generate operational set points for control of the gas turbine system based in part on the remaining useful life characteristics, desired machine performance characteristics based on the operator behaviors, and maintenance characteristics of the machine. receive sensed operation parameters related to the operation of the gas turbine system; utilize the sensed operation parameters in a first analyzer configured to generate first characteristics related to degradation of the gas turbine system; utilize the sensed operation parameters in a second analyzer configured to generate second characteristics related to thermal characteristics of the gas turbine system, wherein the thermal characteristics include thermal stresses present in the gas turbine system; utilize the first characteristic related to degradation of the gas turbine system, the second characteristics related to thermal characteristics of the gas turbine system, and a third characteristic generated by an operator behavior analyzer, related to operator behaviors related to the current operation of the gas turbine system to generate remaining useful life characteristics of components of the gas turbine system; and generate operational set points for control of the gas turbine system based in part on the remaining useful life characteristics, desired machine performance characteristics based on the operator behaviors, and maintenance characteristics of the machine.
A prosthetic valve comprising: a frame; a leaflet structure having at least one leaflet forming a primary valve mounted inside the frame; at least one secondary valve element connected to at least one leaflet of the leaflet structure, wherein the at least one secondary valve element has a stationary portion and a detached portion; and at least one aperture in the at least one leaflet and proximate to the secondary valve element; wherein when the leaflet structure closes, the secondary valve element closes and covers the aperture; wherein when the leaflet structure opens, the secondary valve element moves to create a secondary flow path through the aperture. a frame; a leaflet structure having at least one leaflet forming a primary valve mounted inside the frame; at least one secondary valve element connected to at least one leaflet of the leaflet structure, wherein the at least one secondary valve element has a stationary portion and a detached portion; and at least one aperture in the at least one leaflet and proximate to the secondary valve element; wherein when the leaflet structure closes, the secondary valve element closes and covers the aperture; wherein when the leaflet structure opens, the secondary valve element moves to create a secondary flow path through the aperture.
A method for preparing R-T-B sintered magnets, said method comprising the steps of: Introducing a carrier gas, a reactive gas, and a cooling gas into a plasma torch gun and passing a Dy and/or Tb powder driven by the carrier gas through the plasma torch gun thereby heating and melting the Dy and/or Tb powder under the action of high temperature of the plasma torch to generate spherical droplets which are deposited as a metal film on a surface of an R-T-B-M sintered basal diffusion magnet of R 2 T 14 B type, wherein R is at least one element selected from the rare earth elements including Sc and Y, T is at least one element selected from Fe and Co, B is boron, and M is at least one element selected from Ti, Zr, Hf, V, Nb, Ta, Mn, Ni, Cu, Ag, Zn, Zr, Al, Ga, In, C, Si, Ge, Sn, Pb, N, P, Bi, S, Sb, and O, and wherein a weight percentage of said elements is: 25% ≤ R ≤ 40%, 0 ≤ M ≤ 4%, 0.8% ≤ B ≤ 1.5%, and the residue is T.
Integrated assembly for an air-conditioning circuit operating using a refrigerant fluid, the said integrated assembly comprising a housing in which there is housed an internal heat exchanger comprising a first tube delimiting a path for the circulation of a fluid, the said first tube being wound in a spiral about an axis referred to as the exchanger axis, the said heat exchanger comprising two second tubes (120a, 120b) delimiting a path for the circulation of the fluid, the said second tubes (120a, 120b) backing onto a respective face of the first tube and being wound in a spiral with the said first tube about the said axis, the said internal heat exchanger being housed between a cover and a bottom, the said bottom being equipped with a fluid inlet orifice (161a, 161b) admitting fluid into the coils made up of the said first and second (120a, 120b) tubes, the said first tube comprising a plurality of parallel main channels each one delimiting a path for the circulation of the fluid in a spiral about the axis of the exchanger, the said second tubes (120a, 120b) comprising a plurality of parallel secondary channels each delimiting a path for the circulation of the fluid in the spiral about the axis of the exchanger, the fluid in the first tube and in the second tubes (120a, 120b) being identical and subjected in the first tube to a pressure higher than the pressure of the fluid in the second tubes (120a, 120b), the said internal heat exchanger comprising a main inlet nozzle able to receive the said fluid and a main outlet nozzle able to deliver the said fluid out of the exchanger, the said main channels extending between the main inlet nozzle and the main outlet nozzle, at least one of the main nozzles (111, 112) having a substantially cylindrical shape of axis parallel to the axis of the exchanger, and having an opening (113, 114) able to accept one end of the first tube, the said housing containing inside it a secondary inlet nozzle for the said fluid, parallel to the axis of the exchanger and one end of which communicates with the said outlet orifice (161a, 161b) through the said bottom, and a secondary fluid outlet nozzle, parallel to the axis of the exchanger and comprising an outlet opening, the said integrated assembly comprising an accumulator connected to the bottom of the said integrated assembly, into which the said secondary inlet nozzle opens so as to communicate with the said outlet orifice (161a, 161b), the said housing extending in the continuation of the internal heat exchanger after the bottom and comprising a chamber to accept the low-pressure fluid.
A tire overlay ply strip (12, 12') comprising a cord, the cord comprising from 6 to 10 polyamide monofilament plies having each a density from 300 to 470 dtex, wherein the monofilament plies are twisted together by between 1 and 2 twists per 2.54 cm to form the cord.
A system for simultaneously energizing, burning in and testing electronic circuitry embodied on each individual die of an uncut semiconductor wafer (80, 302) having top and bottom surfaces, the system comprising: a housing; an upper platen assembly (74, 318, 418) and a lower platen assembly (68, 306, 492) disposed inside the housing; a plenum assembly having an upper plenum assembly and a lower plenum assembly; an interposer assembly (76, 314) extending transversely between the upper platen assembly (74, 318, 418) and the lower platen assembly (68, 306, 492) and between the upper plenum assembly and the lower plenum assembly; a pin chuck attached to an underside of the interposer assembly (76, 314); a wafer support structure configured to receive, support and selectively position the uncut semiconductor wafer (80, 302) relative to the pin chuck; a service controller configured to run a control app to initiate burn-in and testing and to set or change parametric limits for the electronic circuitry of each of the plurality of die of the uncut semiconductor wafer (80, 302) during a burn-in and test period; and a temperature control system comprising two independent fluid flowpaths, wherein a first of said two independent fluid flowpaths is configured to circulate a first liquid heat transfer medium through an upper flow section containing the upper platen assembly (74,318,418), and wherein a second of said two independent fluid flowpaths is configured to circulate a second temperature-controlled liquid heat transfer medium through a lower flow section including the lower platen assembly (68, 306, 492). a housing; an upper platen assembly (74, 318, 418) and a lower platen assembly (68, 306, 492) disposed inside the housing; a plenum assembly having an upper plenum assembly and a lower plenum assembly; an interposer assembly (76, 314) extending transversely between the upper platen assembly (74, 318, 418) and the lower platen assembly (68, 306, 492) and between the upper plenum assembly and the lower plenum assembly; a pin chuck attached to an underside of the interposer assembly (76, 314); a wafer support structure configured to receive, support and selectively position the uncut semiconductor wafer (80, 302) relative to the pin chuck; a service controller configured to run a control app to initiate burn-in and testing and to set or change parametric limits for the electronic circuitry of each of the plurality of die of the uncut semiconductor wafer (80, 302) during a burn-in and test period; and a temperature control system comprising two independent fluid flowpaths, wherein a first of said two independent fluid flowpaths is configured to circulate a first liquid heat transfer medium through an upper flow section containing the upper platen assembly (74,318,418), and wherein a second of said two independent fluid flowpaths is configured to circulate a second temperature-controlled liquid heat transfer medium through a lower flow section including the lower platen assembly (68, 306, 492).
A cleansing composition comprising: (i) a non-soap surfactant which is an alkyl glycinate, alkyl carboxy glycinate, sarcosinate, glutamate or a mixture thereof; and, (ii) one or more antimicrobial agent, wherein pH of said composition is at least 8.5 and zein number measured as described herein of said composition is in the range of 10 to 65 and wherein the soap content of said composition is not greater than 5 wt%, and wherein the composition comprises an emollient. (i) a non-soap surfactant which is an alkyl glycinate, alkyl carboxy glycinate, sarcosinate, glutamate or a mixture thereof; and, (ii) one or more antimicrobial agent,
Method for optimizing the operation of a digital controller provided in a control loop for a boost converter, which method comprises the following method steps of: - evaluating at least one output variable of the digital controller during operation of the boost converter; - estimating the instantaneous load resistance value (R L) in the path of the control loop on the basis of the at least one evaluated output variable; - adjusting or adapting at least one controller coefficient of the digital controller to the position of the right half-plane zero point in the pole zero point diagram on the basis of the estimated instantaneous load resistance value (R L) during operation of the boost converter, wherein a change in the adjustment of the at least one controller coefficient causes a change in the transit frequency (f T) of the control loop, and wherein the following formulaic relationship is used in the estimation step to estimate the load resistance value (R L): R L = U Aus 1 − D ∗ ReglerAus − U Komp, ss ∗ D R Shunt − U Aus ∗ 1 − D ∗ D ∗ T SW 2 ∗ L where R L is the value of the load resistance in the path, U Aus is the value of the output voltage of the control loop or of the path, ReglerAus is the controller output value of the controller, U Komp,ss is the value of the voltage of the compensation ramp of the boost converter from peak to peak, D is the duty ratio of the controller, R Shunt is the value of a shunt resistance for measuring the coil current of the boost converter, L is the value of the inductance of the boost converter and T SW is the period duration of the controller. - evaluating at least one output variable of the digital controller during operation of the boost converter; - estimating the instantaneous load resistance value (R L) in the path of the control loop on the basis of the at least one evaluated output variable; - adjusting or adapting at least one controller coefficient of the digital controller to the position of the right half-plane zero point in the pole zero point diagram on the basis of the estimated instantaneous load resistance value (R L) during operation of the boost converter,
Soil-working apparatus for ultra-shallow soil working, comprising a frame which extends transversely to the direction of travel in the work position and which has at least two work segments (6a - d), a work segment (6a - d) being formed by a sequence of at least two work tools on which the soil-working apparatus is supported, preferably exclusively, during work, at least one work tool being in the form of a leading tool (12a - d) for loosening the soil and/or cutting crop residues and at least one work tool being in the form of a trailing tool (14a - d) following the leading tool (12a - d) in the direction of travel for recompacting the soil and/or leveling the crop residues, characterized in that the leading tool (12a - d) and the trailing tool (14a - d) have a rotating, rolling or harrowing mode of operation, transverse to the direction of travel, and therefore ensure ultra-shallow soil cultivation, the soil-working apparatus having at least one tensioning device for adjustable distribution of the weight of the soil-working apparatus between the leading tool (12a - d) and the trailing tool (14a - d).
An installation designed to transfer receptacles that may contain a powdery material, said installation being characterized in that it comprises: a rotary distributor device having a support structure designed to support a plurality of receptacles and a rotation shaft embodying an axis of rotation about which the support structure is mounted to move in rotation, so that the support structure turning through a predetermined fraction of a turn about the axis of rotation embodied by the rotation shaft causes the receptacles to move from one predetermined location to another along a circularly arcuate path about the axis of rotation embodied by the rotation shaft; and an elevator device configured to raise one of the receptacles among the plurality of receptacles from a low location corresponding to one of said predetermined locations to a high location situated at a height relative to said low location; said installation being characterized in that the elevator device comprises a ramp and drive means configured to move the receptacle in translation along the ramp from the low location to the high location, and wherein the support structure comprises a plurality of support units each having support means configured to support a respective one of the receptacles, each support unit defining a radial clearance opening enabling the drive means to move the receptacle along the ramp directly from the support unit. a rotary distributor device having a support structure designed to support a plurality of receptacles and a rotation shaft embodying an axis of rotation about which the support structure is mounted to move in rotation, so that the support structure turning through a predetermined fraction of a turn about the axis of rotation embodied by the rotation shaft causes the receptacles to move from one predetermined location to another along a circularly arcuate path about the axis of rotation embodied by the rotation shaft; and an elevator device configured to raise one of the receptacles among the plurality of receptacles from a low location corresponding to one of said predetermined locations to a high location situated at a height relative to said low location; said installation being characterized in that the elevator device comprises a ramp and drive means configured to move the receptacle in translation along the ramp from the low location to the high location, and wherein the support structure comprises a plurality of support units each having support means configured to support a respective one of the receptacles, each support unit defining a radial clearance opening enabling the drive means to move the receptacle along the ramp directly from the support unit.
A heating element cover component (130a-g) comprising: a hollow outer shell portion (131a-e) of a required length, having required rigidity and thermal conductivity; a substantially half-pipe shaped abutting portion (134a, 134b, 134g) formed with a required thickness at a required site of the outside of the outer shell portion (131a-e) in parallel with a longitudinal direction of the outer shell portion (131a-e), having flexibility and thermal conductivity, and with a slit (135a, 135b) penetrating in a thickness direction formed over the entire length in parallel with the longitudinal direction; a connecting portion having flexibility and thermal conductivity, connecting opposed edges of the abutting portion (134a, 134b, 134g) parallel to the longitudinal direction with the outer shell portion (131a-e); and an engaging portion constituted by engaging elements that are disposed at line-symmetrical positions using a longitudinal straight line located at a widthwise middle of the abutting portion (134a, 134b, 134g) as an axis of symmetry to form a pair structured to be engageable with each other; wherein the slit (135a, 135b) is formed in a shape that gradually narrows from a side of a hollow region in the outer shell body to a direction of an outer surface of the abutting portion (134a, 134b, 134g). a hollow outer shell portion (131a-e) of a required length, having required rigidity and thermal conductivity; a substantially half-pipe shaped abutting portion (134a, 134b, 134g) formed with a required thickness at a required site of the outside of the outer shell portion (131a-e) in parallel with a longitudinal direction of the outer shell portion (131a-e), having flexibility and thermal conductivity, and with a slit (135a, 135b) penetrating in a thickness direction formed over the entire length in parallel with the longitudinal direction; a connecting portion having flexibility and thermal conductivity, connecting opposed edges of the abutting portion (134a, 134b, 134g) parallel to the longitudinal direction with the outer shell portion (131a-e); and an engaging portion constituted by engaging elements that are disposed at line-symmetrical positions using a longitudinal straight line located at a widthwise middle of the abutting portion (134a, 134b, 134g) as an axis of symmetry to form a pair structured to be engageable with each other; wherein the slit (135a, 135b) is formed in a shape that gradually narrows from a side of a hollow region in the outer shell body to a direction of an outer surface of the abutting portion (134a, 134b, 134g).