mhurhangee/patent-ind-claim-en huggingface dataset:
Transdermal therapeutic system for the transdermal administration of an active agent comprising an active agent-containing layer structure, the active agent-containing layer structure comprising A) a backing layer, and B) a biphasic matrix layer, the biphasic matrix layer having a) a continuous, outer phase having a composition comprising 70 to 100 % by weight of at least one polymer, b) a discontinuous, inner phase having a composition comprising the active agent and a dissolver for the active agent in amount sufficient so that the active agent forms a solution with the dissolver in the inner phase, wherein the discontinuous, inner phase forms dispersed deposits in the continuous, outer phase, and c) an emulsifier in an amount of 0.1 to 20 % by weight based on the biphasic matrix layer, wherein the emulsifier is selected from a group consisting of emulsifiers which, when blended at about 500 to 1500 rpm with an equal weight amount of the composition of the continuous, outer phase for about 1 hour in a test tube, provide a mixture with the composition of the continuous, outer phase showing less than 20 % of phase separation after storage for about 24 hours at about 20 °C, determined by comparing the height of the separated phase in the test tube and the height of the total content in the test tube. A) a backing layer, and B) a biphasic matrix layer, the biphasic matrix layer having a) a continuous, outer phase having a composition comprising 70 to 100 % by weight of at least one polymer, b) a discontinuous, inner phase having a composition comprising the active agent and a dissolver for the active agent in amount sufficient so that the active agent forms a solution with the dissolver in the inner phase, wherein the discontinuous, inner phase forms dispersed deposits in the continuous, outer phase, and c) an emulsifier in an amount of 0.1 to 20 % by weight based on the biphasic matrix layer, wherein the emulsifier is selected from a group consisting of emulsifiers which, when blended at about 500 to 1500 rpm with an equal weight amount of the composition of the continuous, outer phase for about 1 hour in a test tube, provide a mixture with the composition of the continuous, outer phase showing less than 20 % of phase separation after storage for about 24 hours at about 20 °C, determined by comparing the height of the separated phase in the test tube and the height of the total content in the test tube. a) a continuous, outer phase having a composition comprising 70 to 100 % by weight of at least one polymer, b) a discontinuous, inner phase having a composition comprising the active agent and a dissolver for the active agent in amount sufficient so that the active agent forms a solution with the dissolver in the inner phase, wherein the discontinuous, inner phase forms dispersed deposits in the continuous, outer phase, and c) an emulsifier in an amount of 0.1 to 20 % by weight based on the biphasic matrix layer,
Method for the quantitative analysis of blood platelets and aggregates comprising the steps of: a) providing a sample comprising blood platelets aggregates; b) obtain a 3D representation of the platelets aggregates by the use of DHM or DDHM; c) extract quantitative information about the platelets aggregates from said 3D representation characterised in that said quantitative information is related to the group consisting of shape, such as form factor, volume, spreading, surface, surface to volume ratio, and squared aggregate perimeter to aggregate area ratio and wherein the step of obtaining a 3D representation comprises a phase background subtraction and permanent defects elimination by recording a sequence of N holograms of the sample moved with lateral translations, said background and permanent defects being determined on the said sequence. a) providing a sample comprising blood platelets aggregates; b) obtain a 3D representation of the platelets aggregates by the use of DHM or DDHM; c) extract quantitative information about the platelets aggregates from said 3D representation characterised in that said quantitative information is related to the group consisting of shape, such as form factor, volume, spreading, surface, surface to volume ratio, and squared aggregate perimeter to aggregate area ratio and wherein the step of obtaining a 3D representation comprises a phase background subtraction and permanent defects elimination by recording a sequence of N holograms of the sample moved with lateral translations, said background and permanent defects being determined on the said sequence.
A silver brazing material comprising 35 mass% or more and 45 mass% or less silver, 18 mass% or more and 25 mass% or less zinc, 2 mass% or more and 6 mass% or less manganese, 1.5 mass% or more and 6 mass% or less nickel, and 0.5 mass% or more and 5 mass% or less tin, with the balance being copper and unavoidable impurities, wherein the silver brazing material has a manganese content (C Mn ) and a nickel content (C Ni ) represented by the following formula: C Mn / C Ni ≧ 0.9
A vehicle comprising: an electric storage unit that has a plurality of electric storage elements and outputs energy for use in running of the vehicle ; a blower that is placed closer to the exterior of a vehicle body relative to the electric storage unit and supplies the electric storage unit with air for adjusting a temperature of the electric storage element ; an intake duct that is connected to a duct of the blower ; and a lower case that has a bottom portion and a pedestal , the bottom portion on which the electric storage unit is placed and the pedestal to which the blower is attached, wherein the pedestal has a first attachment portion and a second attachment portion for attaching the blower ; and a first bottom area and a second bottom area that are located to be flush with the bottom portion ; characterized by a first inclined area that extends from and connects the first bottom area to the first attachment portion and is inclined with respect to the bottom portion at a first inclination angle (Θ1); and a second inclined area that extends from and connects the second bottom area to the second attachment portion and is inclined with respect to the bottom portion at a second inclination angle (Θ2) larger than the first inclination angle (Θ1), and wherein the first inclined area and the second inclined area are configured to come closer to the first bottom area and the second bottom area , respectively to allow movement of the blower to a position off the electric storage unit through deformation in response to an external force (F) acting the blower . an electric storage unit that has a plurality of electric storage elements and outputs energy for use in running of the vehicle ; a blower that is placed closer to the exterior of a vehicle body relative to the electric storage unit and supplies the electric storage unit with air for adjusting a temperature of the electric storage element ; an intake duct that is connected to a duct of the blower ; and a lower case that has a bottom portion and a pedestal , the bottom portion on which the electric storage unit is placed and the pedestal to which the blower is attached, wherein the pedestal has a first attachment portion and a second attachment portion for attaching the blower ; and a first bottom area and a second bottom area that are located to be flush with the bottom portion ; characterized by a first inclined area that extends from and connects the first bottom area to the first attachment portion and is inclined with respect to the bottom portion at a first inclination angle (Θ1); and a second inclined area that extends from and connects the second bottom area to the second attachment portion and is inclined with respect to the bottom portion at a second inclination angle (Θ2) larger than the first inclination angle (Θ1), and wherein the first inclined area and the second inclined area are configured to come closer to the first bottom area and the second bottom area , respectively to allow movement of the blower to a position off the electric storage unit through deformation in response to an external force (F) acting the blower .
A latch assembly comprising: a frame ; a pawl including a surface for receiving a striker and being movably coupled to the frame between an open and a closed position, wherein, in the closed position, the pawl is positioned to retain the striker to the latch assembly , and, in the open position, the pawl is not positioned to retain the striker to the latch assembly ; and a spring positioned against a perimeter surface of the pawl , wherein, in the closed position of the pawl , the spring is configured to bias the pawl such that the pawl remains in the closed position, characterised in that the latch assembly further comprises a plurality of depressions formed on the perimeter surface of the pawl , which each depression is configured to receive the spring , wherein, in the open position of the pawl , the spring is seated in one of the depressions , and in the closed position of the pawl , the spring is seated in a different one of the depressions . a frame ; a pawl including a surface for receiving a striker and being movably coupled to the frame between an open and a closed position, wherein, in the closed position, the pawl is positioned to retain the striker to the latch assembly , and, in the open position, the pawl is not positioned to retain the striker to the latch assembly ; and a spring positioned against a perimeter surface of the pawl , wherein, in the closed position of the pawl , the spring is configured to bias the pawl such that the pawl remains in the closed position, characterised in that the latch assembly further comprises a plurality of depressions formed on the perimeter surface of the pawl , which each depression is configured to receive the spring , wherein, in the open position of the pawl , the spring is seated in one of the depressions , and in the closed position of the pawl , the spring is seated in a different one of the depressions .
A network component comprising: a memory coupled to a processor , wherein the memory comprises instructions that cause the processor to: select a first multicast routing mode from a plurality of multicast routing modes supported by a network comprising the network component ; assign the first multicast routing mode to a first multicast flow; advertise a first information frame to a first plurality of nodes, wherein the first information frame provides the assignment of the first multicast routing mode to the first multicast flow; select a second multicast routing mode from the multicast routing modes supported by the network; assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, wherein the second information frame provides the assignment of the second multicast routing mode to the second multicast flow; wherein the first multicast routing mode and the second multicast routing mode are different multicast routing modes. select a first multicast routing mode from a plurality of multicast routing modes supported by a network comprising the network component ; assign the first multicast routing mode to a first multicast flow; advertise a first information frame to a first plurality of nodes, wherein the first information frame provides the assignment of the first multicast routing mode to the first multicast flow; select a second multicast routing mode from the multicast routing modes supported by the network; assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, assign the second multicast routing mode to a second multicast flow; and advertise a second information frame to a second plurality of nodes, wherein the second information frame provides the assignment of the second multicast routing mode to the second multicast flow; wherein the first multicast routing mode and the second multicast routing mode are different multicast routing modes.
An aircraft propulsion system comprising a gas turbine engine arranged to provide propulsive thrust and a fuel cell system having an air input port , wherein the aircraft propulsion system is configured such that bleed air from a compressor of the gas turbine engine is provided to the air input port of the fuel cell system during operation of the aircraft propulsion system, characterised in that the gas turbine engine comprises a heat-exchanger disposed between consecutive compressor stages of the gas turbine engine and in that the aircraft propulsion system is arranged such that in operation thereof gaseous output comprising water vapour produced at an output port of the fuel cell system is provided to the heat-exchanger to provide cooling of compressed air between said consecutive compressor stages.
A composition comprising: a) an organic polymer, and b) a silyl functional compound comprising a N-Si bond, wherein the silyl functional compound comprises one or more compounds of formula (II) (II) a) an organic polymer, and b) a silyl functional compound comprising a N-Si bond,
A spectacle lens comprising: a lens base; and a resin film disposed on at least one of an object side surface and an eyeball side surface of the lens base, wherein the resin film is formed using a composition containing a polyol, a polyisocyanate and an epoxy compound, wherein the polyol comprises a polyacrylic polyol, wherein a ratio of the number of moles of hydroxyl groups in the polyacrylic polyol to the number of moles of all hydroxyl groups in the polyol is not less than 50%, and wherein the number of epoxy groups in the epoxy compound is two to four. a lens base; and a resin film disposed on at least one of an object side surface and an eyeball side surface of the lens base, wherein the resin film is formed using a composition containing a polyol, a polyisocyanate and an epoxy compound, wherein the polyol comprises a polyacrylic polyol, wherein a ratio of the number of moles of hydroxyl groups in the polyacrylic polyol to the number of moles of all hydroxyl groups in the polyol is not less than 50%, and wherein the number of epoxy groups in the epoxy compound is two to four.
Electrosurgical system comprising: - an ultrasonic generator configured to output a high frequency electrical signal, and - an ultrasonic instrument comprising an ultrasonic transducer configured to convert the high frequency electrical signal into an ultrasonic vibration, wherein the ultrasonic generator is further configured to determine a resonant frequency of the ultrasonic transducer and to adjust a frequency of the high-frequency electrical signal to this resonant frequency, and wherein the ultrasonic generator is further configured to determine a phase shift between the current and the voltage of the high-frequency electrical signal and to determine from the determined phase shift whether the frequency of the high-frequency electrical signal corresponds to the resonant frequency of the ultrasonic transducer , characterized in that the ultrasonic generator is configured to consider, when determining the phase shift, correction values which are stored or storable in a memory of the ultrasonic generator and/or of the ultrasonic instrument . - an ultrasonic generator configured to output a high frequency electrical signal, and - an ultrasonic instrument comprising an ultrasonic transducer configured to convert the high frequency electrical signal into an ultrasonic vibration, wherein the ultrasonic generator is further configured to determine a resonant frequency of the ultrasonic transducer and to adjust a frequency of the high-frequency electrical signal to this resonant frequency, and wherein the ultrasonic generator is further configured to determine a phase shift between the current and the voltage of the high-frequency electrical signal and to determine from the determined phase shift whether the frequency of the high-frequency electrical signal corresponds to the resonant frequency of the ultrasonic transducer , characterized in that the ultrasonic generator is configured to consider, when determining the phase shift, correction values which are stored or storable in a memory of the ultrasonic generator and/or of the ultrasonic instrument .
A toner cartridge comprising: (i) a casing including (i-i) a toner accommodation chamber accommodating toner, and (i-ii) a discharge opening capable of discharging the toner; (ii) a first engaging portion forming an opening; (iii) a second engaging portion forming an opening; (iv) a feeding member movable relative to the casing and configured to feed the toner in the toner accommodation chamber toward the discharge opening ; (v) a pump configured to discharge the toner through the discharge opening by using air; and (vi) a storing element provided with an electrical contact, wherein the pump is provided with a connecting portion connected with the casing , and wherein as viewed in a feeding direction of the toner by the feeding member , the electrical contact of the storing element and the connecting portion of the pump are in opposite sides from each other with respect to a line (L1) connecting the first engaging portion and the second engaging portion . (i) a casing including (i-i) a toner accommodation chamber accommodating toner, and (i-ii) a discharge opening capable of discharging the toner; (ii) a first engaging portion forming an opening; (iii) a second engaging portion forming an opening; (iv) a feeding member movable relative to the casing and configured to feed the toner in the toner accommodation chamber toward the discharge opening ; (v) a pump configured to discharge the toner through the discharge opening by using air; and (vi) a storing element provided with an electrical contact, wherein the pump is provided with a connecting portion connected with the casing , and wherein as viewed in a feeding direction of the toner by the feeding member , the electrical contact of the storing element and the connecting portion of the pump are in opposite sides from each other with respect to a line (L1) connecting the first engaging portion and the second engaging portion .
A position sensor (1a-1d) for a bearing arrangement, the position sensor (1a-1d) comprising: at least one shaft or bearing ring (2a-2e); an inductive sensor (4a-4e); a composite marking ring (6a-6d) connected to the at least one shaft or bearing ring (2a-2e), spaced apart from and aligned with the inductive sensor (4a-4e), the composite marking ring (6a-6d) including a ferrous material ring having a wavy surface (10a-10d) with a plurality of projections (12a-12d) with valleys (14a-14d) therebetween facing the inductive sensor (4a-4e), such that the inductive sensor (4a-4e) detects a rotational angle position of the at least one shaft or bearing ring (2a-2e) based on a proximity of the wavy surface (10a-10d) to the inductive sensor (4a-4e), and an outer layer formed of a filler material arranged at least on the wavy surface (10a-10d) of the ferrous material ring, the filler material comprises a non-ferrous material and the outer layer (16a-16d) provides a constant predetermined spacing between the composite marking ring (6a-6d) and the inductive sensor (4a-4e). at least one shaft or bearing ring (2a-2e); an inductive sensor (4a-4e); a composite marking ring (6a-6d) connected to the at least one shaft or bearing ring (2a-2e), spaced apart from and aligned with the inductive sensor (4a-4e), the composite marking ring (6a-6d) including a ferrous material ring having a wavy surface (10a-10d) with a plurality of projections (12a-12d) with valleys (14a-14d) therebetween facing the inductive sensor (4a-4e), such that the inductive sensor (4a-4e) detects a rotational angle position of the at least one shaft or bearing ring (2a-2e) based on a proximity of the wavy surface (10a-10d) to the inductive sensor (4a-4e), and an outer layer formed of a filler material arranged at least on the wavy surface (10a-10d) of the ferrous material ring, the filler material comprises a non-ferrous material and the outer layer (16a-16d) provides a constant predetermined spacing between the composite marking ring (6a-6d) and the inductive sensor (4a-4e).
Vehicle restraint system having a post , having a plate , more particularly a base plate, connected to the post , wherein the plate has at least one recess (10.1, 10.2, 10.3, 10.4) spaced from the post , and having a weld seam , more particularly a fillet seam, with a leg length (z, z1) along the plate , which weld seam adjoins the post and the plate and connects the post and the plate in a materially bonded manner, characterized in that the recess (10.2, 10.3, 10.4) of the plate extends to the weld seam at least up to a maximum distance from a leg length (z, z1) and at most adjoins the weld seam in such a way that this weakening of the base plate in certain regions permits a hinge-like movement of the post on the base plate, whereby peeling of the post and thus detachment of the post from the plate can be avoided.
Method to produce a chromatography medium, starting with a chromatography medium comprising porous beads coupled with dextran inside the pores and on the bead surface, comprising a step of subjecting the chromatography medium to dextranase treatment, wherein the dextranase is coupled to a support particle, and wherein the support particle is magnetic.
A method for inducing monocytes to differentiate into M2 polarized macrophages, the method consisting of contacting monocytes previously obtained from a subject to be treated with the M2 macrophages with a Protein Solution (PS), wherein the PS comprises interleukin-4 (IL-4), interleukin-10 (IL-10), interleukin-i receptor antagonist (IL-ira), and transforming growth factor-β (TGFβ), wherein the PS is obtained by: (a) isolating platelet rich plasma (PRP) from whole blood previously obtained from the subject; (b) contacting the PRP with a solid extraction material comprising polyacrylamide beads to form the PS; and (c) separating the PS from the solid extraction material, wherein contacting the subject's monocytes with the PS induces the monocytes to differentiate into macrophages having an M2 phenotype, and wherein the PRP and monocytes are obtained from the same subject. wherein the PS comprises interleukin-4 (IL-4), interleukin-10 (IL-10), interleukin-i receptor antagonist (IL-ira), and transforming growth factor-β (TGFβ), wherein the PS is obtained by: (a) isolating platelet rich plasma (PRP) from whole blood previously obtained from the subject; (b) contacting the PRP with a solid extraction material comprising polyacrylamide beads to form the PS; and (c) separating the PS from the solid extraction material, (a) isolating platelet rich plasma (PRP) from whole blood previously obtained from the subject; (b) contacting the PRP with a solid extraction material comprising polyacrylamide beads to form the PS; and (c) separating the PS from the solid extraction material, wherein contacting the subject's monocytes with the PS induces the monocytes to differentiate into macrophages having an M2 phenotype, and wherein the PRP and monocytes are obtained from the same subject.
A rotary wing aircraft with a fuselage that forms an aircraft interior region , the fuselage comprising an upper primary skin that separates the aircraft interior region from an aircraft upper deck arranged above the fuselage , wherein the aircraft upper deck comprises an engine accommodating region with a firewall arrangement , the engine accommodating region accommodating at least one aircraft engine within the firewall arrangement such that the firewall arrangement defines a fire proof separation at least between the at least one aircraft engine and the aircraft interior region , characterized in that the firewall arrangement comprises at least one funnel-shaped lower firewall that is arranged between the at least one aircraft engine and the upper primary skin of the fuselage , wherein the at least one funnel-shaped lower firewall converges from an outer perimeter to at least one inner collecting point , and wherein the outer perimeter is spaced apart from the upper primary skin of the fuselage .