mhurhangee/ep-ind-claims huggingface dataset:
A microneedle for administering a drug transdermally, which comprises a base section in the shape of a polygonal or conical truncated pyramid, a shaft section formed on the base section and having a shape of a polygonal or conical truncated pyramid and a top section formed on the shaft section, wherein (i) a tip apex angle (α) in the top section is 15 to 60°; (ii) a tip diameter (D 0) is 1 to 20 μm; (iii) the area (A 3) of the top surface of the base section is larger than the area (A 2) of the bottom surface of the shaft section; (iv) the following expressions and are satisfied; H / D 4 ≧ 3 where H is the overall height, and D 4 is the diameter of the bottom surface of the base section, β ≧ 9 0 − 0.5 ⁢ α where β is the angle between the side surface of the shaft section and the top surface of the base section, and α is the tip apex angle; and (v) a solid composition containing the drug is fixed to the outer side surface of the shaft section and the following expression is satisfied, 10 ° ≦ γ ≦ 6 0 ° where γ is the angle formed by tangent lines connecting the apex of the top section and the outer surface of the solid composition fixed to the outer side surface of the shaft section. (i) a tip apex angle (α) in the top section is 15 to 60°; (ii) a tip diameter (D 0) is 1 to 20 μm; (iii) the area (A 3) of the top surface of the base section is larger than the area (A 2) of the bottom surface of the shaft section; (iv) the following expressions and are satisfied; H / D 4 ≧ 3 where H is the overall height, and D 4 is the diameter of the bottom surface of the base section, β ≧ 9 0 − 0.5 ⁢ α where β is the angle between the side surface of the shaft section and the top surface of the base section, and α is the tip apex angle; and (v) a solid composition containing the drug is fixed to the outer side surface of the shaft section and the following expression is satisfied, 10 ° ≦ γ ≦ 6 0 ° where γ is the angle formed by tangent lines connecting the apex of the top section and the outer surface of the solid composition fixed to the outer side surface of the shaft section.
A method of communicating uplink control information, UCI, embedded in a demodulation reference signal, DMRS, sequence, the method comprising: determining to communicate a specific UCI; selecting a first DMRS sequence from a plurality of DMRS sequences to be used in an uplink message, wherein the first DMRS sequence corresponds to the specific UCI; selecting a first pilot sub-sequence to embed in the first DMRS sequence from a number of pilot sub-sequences, the first pilot sub-sequence being common among all or a portion of the plurality of DMRS sequences; and transmitting the uplink message comprising the first DMRS sequence over a physical channel, said first DMRS sequence comprising the specific UCI and the first pilot sub-sequence. determining to communicate a specific UCI; selecting a first DMRS sequence from a plurality of DMRS sequences to be used in an uplink message, wherein the first DMRS sequence corresponds to the specific UCI; selecting a first pilot sub-sequence to embed in the first DMRS sequence from a number of pilot sub-sequences, the first pilot sub-sequence being common among all or a portion of the plurality of DMRS sequences; and transmitting the uplink message comprising the first DMRS sequence over a physical channel, said first DMRS sequence comprising the specific UCI and the first pilot sub-sequence.
Vacuum cleaner comprising a drive unit container and a separator container having a carrying handle, the drive unit container and the separator container being detachably connected and the carrying handle being rotatably movably arranged on the separator container such that when the carrying handle is raised in a rotational manner, the separator container is detached from the drive unit container and can be removed upwards, relative to a direction of travel of the vacuum cleaner, characterised in that the drive unit container comprises guideways along which the separator container is guided when the carrying handle is raised in a rotational manner.
A method of making a wind turbine blade having a shell of varying thickness, the method comprising: providing a blade mould, the mould defining first and second zones (32, 34); arranging layers of fibrous material for forming a first part of the shell having a first thickness in the first zone of the mould; arranging layers of fibrous material for forming a second part of the shell having a second thickness greater than the first thickness in the second zone of the mould; and supplying resin to the mould; characterized in that the method further comprises pre-heating the mould in the first zone to a first temperature, and pre-heating the mould in the second zone to a second temperature greater than the first temperature before supplying the resin to the mould. providing a blade mould, the mould defining first and second zones (32, 34); arranging layers of fibrous material for forming a first part of the shell having a first thickness in the first zone of the mould; arranging layers of fibrous material for forming a second part of the shell having a second thickness greater than the first thickness in the second zone of the mould; and supplying resin to the mould; characterized in that the method further comprises pre-heating the mould in the first zone to a first temperature, and pre-heating the mould in the second zone to a second temperature greater than the first temperature before supplying the resin to the mould.
A method for the preparation of a porous gelatin material in the form of spheres with a continuous pore structure, the method comprising the steps: preparing a homogeneous water-based gelatin solution; adding an emulsifier with an HLB value >9; adding a first composition comprising an organic solvent and an emulsifier with an HLB value >9; adding a second composition comprising an organic solvent and an emulsifier with an HLB value <8; and allowing the gelatin material to solidify. preparing a homogeneous water-based gelatin solution; adding an emulsifier with an HLB value >9; adding a first composition comprising an organic solvent and an emulsifier with an HLB value >9; adding a second composition comprising an organic solvent and an emulsifier with an HLB value <8; and allowing the gelatin material to solidify.
A method for restraining lateral movement of a control arm assembly of a pivotable vehicle suspension system using a link arm, said method comprising the steps of: pivotally connecting a first end of the link arm to a wheel-mounting end of the control arm assembly by way of a pivot pin at a link arm mounting end of a cross piece, the cross piece further comprising a wheel carrying end for carrying a wheel opposite to the link arm mounting end, wherein the rotational axis of the wheel and the longitudinal axis of the cross piece are substantially parallel or co-axial, wherein the control arm assembly further comprises a frame-mounting end having control arm bearings (48, 49) pivotally mounted to a frame of the vehicle; and pivotally mounting a second end of the link arm to the frame of the vehicle such that a rotational axis of each of the pivotally mounted control arm bearings (48, 49) and the pivotally mounted second end of the link arm is shared, defining a common axis of rotation extending through all of the pivotally mounted control arm bearings (48, 49) as well as through the pivotally mounted second end of the link arm such that the link arm may pivot relative to the frame in unison with the wheel-mounting end, and assist in restraining lateral movement of the wheel-mounting end relative to the frame. pivotally connecting a first end of the link arm to a wheel-mounting end of the control arm assembly by way of a pivot pin at a link arm mounting end of a cross piece, the cross piece further comprising a wheel carrying end for carrying a wheel opposite to the link arm mounting end, wherein the rotational axis of the wheel and the longitudinal axis of the cross piece are substantially parallel or co-axial, wherein the control arm assembly further comprises a frame-mounting end having control arm bearings (48, 49) pivotally mounted to a frame of the vehicle; and pivotally mounting a second end of the link arm to the frame of the vehicle such that a rotational axis of each of the pivotally mounted control arm bearings (48, 49) and the pivotally mounted second end of the link arm is shared, defining a common axis of rotation extending through all of the pivotally mounted control arm bearings (48, 49) as well as through the pivotally mounted second end of the link arm such that the link arm may pivot relative to the frame in unison with the wheel-mounting end, and assist in restraining lateral movement of the wheel-mounting end relative to the frame.
A collection device for collection of carbon nanotube films or carbon nanotube fibers, comprising: a pre-adjustment mechanism for adjusting orientation of at least one bundle of carbon nanotube aggregates, wherein the pre-adjustment mechanism comprises a first pre-adjustment sub-mechanism at least including a first wheel body and a second wheel body that are rotatable and disposed in a first direction for pre-pressing both sides of the carbon nanotube aggregates, and a second pre-adjustment sub-mechanism at least including a third wheel body for drawing the carbon nanotube aggregates; a winding mechanism for winding and collecting the carbon nanotube aggregates drawn from the pre-adjustment mechanism; wherein an annular position-limiting slot capable of accommodating the carbon nanotube aggregates is provided in the contact surface of the first wheel body and/or the second wheel body for contacting the carbon nanotube aggregates. a pre-adjustment mechanism for adjusting orientation of at least one bundle of carbon nanotube aggregates, wherein the pre-adjustment mechanism comprises a first pre-adjustment sub-mechanism at least including a first wheel body and a second wheel body that are rotatable and disposed in a first direction for pre-pressing both sides of the carbon nanotube aggregates, and a second pre-adjustment sub-mechanism at least including a third wheel body for drawing the carbon nanotube aggregates; a winding mechanism for winding and collecting the carbon nanotube aggregates drawn from the pre-adjustment mechanism; wherein an annular position-limiting slot capable of accommodating the carbon nanotube aggregates is provided in the contact surface of the first wheel body and/or the second wheel body for contacting the carbon nanotube aggregates.
A method for evaluating a building's wireless performance, the method comprising: constructing an environment model, the environment model comprising a layout of the building, a power density of transmitters P T [W/m 2], and a considered frequency band f c; computing a signal to interference plus noise ratio SINR for the building in dependence on the environment model; computing a SINR for an open space in dependence on the environment model, the computing size for the open space being the same as the computing size of the building, and wherein the open space is an ideal space in absence of the building or other surroundings; comparing the SINR for the building with the SINR for the open space; and in dependence on the comparison, evaluating the building wireless performance by calculating an interference power gain and an intended power gain for the building. constructing an environment model, the environment model comprising a layout of the building, a power density of transmitters P T [W/m 2], and a considered frequency band f c; computing a signal to interference plus noise ratio SINR for the building in dependence on the environment model; computing a SINR for an open space in dependence on the environment model, the computing size for the open space being the same as the computing size of the building, and wherein the open space is an ideal space in absence of the building or other surroundings; comparing the SINR for the building with the SINR for the open space; and in dependence on the comparison, evaluating the building wireless performance by calculating an interference power gain and an intended power gain for the building.
A method for allocating a radio resource in a system comprising a resource scheduler and a set of devices, each device hosting at least one application, each application transmitting messages to at least one receiver on a transmission channel, characterized in that the method comprises, executed by the resource scheduler, at least one iteration n of: a) receiving, from each application, application parameters representative of requirements for said application at iteration n; b) computing, for each application, a metric from an instantaneous probability of failure of said application, from an average probability of failure of said application computed at iteration (n-1) and further from a channel error probability of said transmission channel, wherein the average probability of failure of said application and said instantaneous probability of failure of said application are computed from at least one of the received application parameters and from said channel error probability of said transmission channel; c) comparing the metrics and, responsive to said comparison, selecting the application to allocate the radio resource to; d) updating, for each application, the average probability of failure at iteration n from the average probability of failure of said application computed at iteration (n-1); and e) transmitting said instantaneous probability of failure computed at iteration n to each application, said instantaneous probability of failure at iteration n being used by said application to update at least one of its application parameters, said updated at least one application parameters being used by the resource scheduler at an iteration (n+1) to allocate a new radio resource. a) receiving, from each application, application parameters representative of requirements for said application at iteration n; b) computing, for each application, a metric from an instantaneous probability of failure of said application, from an average probability of failure of said application computed at iteration (n-1) and further from a channel error probability of said transmission channel, wherein the average probability of failure of said application and said instantaneous probability of failure of said application are computed from at least one of the received application parameters and from said channel error probability of said transmission channel; c) comparing the metrics and, responsive to said comparison, selecting the application to allocate the radio resource to; d) updating, for each application, the average probability of failure at iteration n from the average probability of failure of said application computed at iteration (n-1); and e) transmitting said instantaneous probability of failure computed at iteration n to each application, said instantaneous probability of failure at iteration n being used by said application to update at least one of its application parameters, said updated at least one application parameters being used by the resource scheduler at an iteration (n+1) to allocate a new radio resource.
Method for treating a polymer workpiece of a joint-replacement component, comprising the steps of: - placing the polymer workpiece in an explosion chamber, - closing the explosion chamber, - introducing a combustible gas mixture into the explosion chamber, - igniting the combustible gas mixture, wherein ignition of the gas mixture in the explosion chamber generates a temperature which lies above the melting point of a polymer of the polymer workpiece. - placing the polymer workpiece in an explosion chamber, - closing the explosion chamber, - introducing a combustible gas mixture into the explosion chamber, - igniting the combustible gas mixture,
An external bodily vessel support (100, 1100, 2100, 3100, 5100) for externally covering a peripheral blood vessel or vein graft (SV, VG) in a peripheral vascular bypass system, the external bodily vessel support comprising: an elongate body with a longitudinal axis and an interior to be brought into apposition with an exterior of the peripheral blood vessel or vein graft (SV, VG), said elongate body includes a tubular braided fabric of a plurality of threads (1110, 1120, 2110, 2120), and, said elongate body when in a relaxed configuration has a relaxed length and is sized and shaped to fit over said exterior of the peripheral blood vessel or vein graft (SV, VG); wherein said plurality of threads (1110, 1120, 2110, 2120) includes coiled compression springs intertwined to form said tubular braided fabric and said elongate body as being longitudinally elastic, so as to maintain said elongate body relaxed length with an axial stiffness of at least 0.1 N/m and to resist axial compression of said tubular braided fabric, after implantation and deployment of said elongate body over the peripheral blood vessel or vein graft (SV, VG), and completion of a peripheral vascular bypass procedure; characterized in that said elongate body is configured with said tubular braided fabric having all of said plurality of threads (1110, 1120, 2110, 2120) being elastic via said coiled compression springs thereof. an elongate body with a longitudinal axis and an interior to be brought into apposition with an exterior of the peripheral blood vessel or vein graft (SV, VG), said elongate body includes a tubular braided fabric of a plurality of threads (1110, 1120, 2110, 2120), and, said elongate body when in a relaxed configuration has a relaxed length and is sized and shaped to fit over said exterior of the peripheral blood vessel or vein graft (SV, VG); wherein said plurality of threads (1110, 1120, 2110, 2120) includes coiled compression springs intertwined to form said tubular braided fabric and said elongate body as being longitudinally elastic, so as to maintain said elongate body relaxed length with an axial stiffness of at least 0.1 N/m and to resist axial compression of said tubular braided fabric, after implantation and deployment of said elongate body over the peripheral blood vessel or vein graft (SV, VG), and completion of a peripheral vascular bypass procedure; characterized in that said elongate body is configured with said tubular braided fabric having all of said plurality of threads (1110, 1120, 2110, 2120) being elastic via said coiled compression springs thereof.
A computer-implemented method comprising: obtaining (2.1) a domain credential for a platform prior to loading an operating system for the platform; characterized by authenticating the domain credential with a domain controller remote from the platform; receiving (2.4) from the domain controller a service ticket in response to authenticating the domain credential; identifying a resource of the platform that the domain credential has authority to access, comprising reviewing an access policy for the platform contained in the service ticket and maintained by the domain controller, wherein the access policy specifies the resource of the platform that the domain credential has authority to access; and using the domain credential to unlock (2.8) the resource of the platform prior to loading the operating system for the platform. obtaining (2.1) a domain credential for a platform prior to loading an operating system for the platform;
A catalyst pellet for selective gas phase exothermic reactions in a tubular fixed bed reactor, wherein said catalyst pellet has: I a longitudinal axis; II a parallelogram cross-section which is uniform or, if not uniform, with a deviation from the average cross-section area lower than 30%; III. one or more through-bores; A. wherein the or each through-bore has an axis which is parallel to the longitudinal axis of the pellet or, if not parallel, with a deviation from parallel line lower than 20%. and wherein when there are more than one through-bores the axes of the through-bores are parallel to each other or, if not parallel, with a deviation from parallel line lower than 20%; B. wherein the or each through-bore has a uniform section or, if not uniform, has a deviation from the average cross-section lower than 30%, wherein the sides and the corners of the external contour of the pellet cross-section are rounded and the sides of the external contour of the pellet cross-section are convexly curved, and in such a way that the ratio between the area of the cross-section of the pellet, including the cross-section of the bore or bores, and the area of the parallelogram circumscribing the external contour of the pellet cross-section is higher than 0.85, and wherein the pellet has the following size: 4 mm < P 1 < 15 mm, 4 mm < P 2 < 15 mm, 0.5 mm < P 3 < 4 mm, 3 mm < P 4 < 15 mm, wherein P 1 is the main diagonal of the parallelogram, P 2 is the secondary diagonal of the parallelogram, P 3 is the maximum wall thickness, P 4 is the length of the pellet. I a longitudinal axis; II a parallelogram cross-section which is uniform or, if not uniform, with a deviation from the average cross-section area lower than 30%; III. one or more through-bores; A. wherein the or each through-bore has an axis which is parallel to the longitudinal axis of the pellet or, if not parallel, with a deviation from parallel line lower than 20%. and wherein when there are more than one through-bores the axes of the through-bores are parallel to each other or, if not parallel, with a deviation from parallel line lower than 20%; B. wherein the or each through-bore has a uniform section or, if not uniform, has a deviation from the average cross-section lower than 30%, A. wherein the or each through-bore has an axis which is parallel to the longitudinal axis of the pellet or, if not parallel, with a deviation from parallel line lower than 20%. and wherein when there are more than one through-bores the axes of the through-bores are parallel to each other or, if not parallel, with a deviation from parallel line lower than 20%; B. wherein the or each through-bore has a uniform section or, if not uniform, has a deviation from the average cross-section lower than 30%,
A furniture drive for moving a furniture part movably supported relative to a furniture carcass, comprising: - a housing having a first housing wall to be fixed to the furniture carcass, and a second housing wall at least partially spaced from the first housing wall, - wherein at least the first housing wall includes at least one guide device for guiding a fastening means, - at least one supporting body separate from the at least one guide device for guiding the fastening means, the at least one supporting body at least partially surrounding the at least one guide device and being firmly attached to both the first housing wall and the second housing wall so as to restrain a movement of the second wall relative to the first housing wall, characterized in that the guide device is at least partially, preferably entirely, surrounded by a supporting rim protruding from the first housing wall, the supporting rim being formed in the first housing wall and being configured to bear against the furniture carcass, the first housing wall having a plurality of mutually spaced protrusions (15a-15h) configured to bear against the furniture carcass, and the housing, in a mounted condition, is configured to bear against the furniture carcass, preferably exclusively, via the protrusions (15a-15h) and via the supporting rim, wherein a majority of the first housing wall is spaced from the furniture carcass in a mounted condition of the furniture drive. - a housing having a first housing wall to be fixed to the furniture carcass, and a second housing wall at least partially spaced from the first housing wall, - wherein at least the first housing wall includes at least one guide device for guiding a fastening means, - at least one supporting body separate from the at least one guide device for guiding the fastening means, the at least one supporting body at least partially surrounding the at least one guide device and being firmly attached to both the first housing wall and the second housing wall so as to restrain a movement of the second wall relative to the first housing wall,