mhurhangee/ep-ind-claims huggingface dataset:
A neuromodulation system, comprising: a neuromodulation lead (12, 12a, 12b) having at least one electrode configured for being implanted along a spinal cord of a patient; a plurality of electrical terminals configured for being respectively coupled to the at least one electrode; modulation output circuitry configured for delivering sub-threshold modulation energy to active ones of the at least one electrode; characterised by control/processing circuitry (48, 68) configured for selecting a percentage of a perception threshold from a plurality of percentages based on a known longitudinal location of the neuromodulation lead (12,12a,12b) relative to the spinal cord, computing an amplitude value as a function of the selected percentage, and controlling the modulation output circuitry to deliver sub-threshold modulation energy to the patient at the computed amplitude value. a neuromodulation lead (12, 12a, 12b) having at least one electrode configured for being implanted along a spinal cord of a patient; a plurality of electrical terminals configured for being respectively coupled to the at least one electrode; modulation output circuitry configured for delivering sub-threshold modulation energy to active ones of the at least one electrode; characterised by control/processing circuitry (48, 68) configured for selecting a percentage of a perception threshold from a plurality of percentages based on a known longitudinal location of the neuromodulation lead (12,12a,12b) relative to the spinal cord, computing an amplitude value as a function of the selected percentage, and controlling the modulation output circuitry to deliver sub-threshold modulation energy to the patient at the computed amplitude value.
A Network Entity running as Hypertext Transfer Protocol version 5 Application, HTML5 Application, NEHA, the NEHA is used in a system comprising a HTTP server, a network entity, NE, wherein the system further comprises a mirror network entity, MNE, wherein the MNE is a mirror instance of the NE, a desired network protocol is run between the MNE and the NE, wherein the MNE is a mirrored device; wherein the desired network protocol comprises network protocols not supported by HTML5; characterised in that the NEHA comprises: a first sender configured for sending a first request to the HTTP server for requesting the MNE, wherein the first request indicates the desired network protocol; a first receiver configured for receiving a first response indicating the MNE from the HTTP server; a processing logic configured for creating the first request and processing the first response; and a communicating unit configured for communicating through the MNE with the NE that runs the desired network protocol, without the requirement of installing native applications or special plugins per browser and per operating system, OS, or per service type on the NEHA. a first sender configured for sending a first request to the HTTP server for requesting the MNE, wherein the first request indicates the desired network protocol; a first receiver configured for receiving a first response indicating the MNE from the HTTP server; a processing logic configured for creating the first request and processing the first response; and a communicating unit configured for communicating through the MNE with the NE that runs the desired network protocol, without the requirement of installing native applications or special plugins per browser and per operating system, OS, or per service type on the NEHA.
A substrate for manufacturing banknotes that is suitable for storage, comprising a ink absorption layer that is post-crosslinkable by the action of high-energy radiation, wherein the substrate comprises a security element (6, 7) which is so arranged in or on the substrate that a first surface of the security element (6, 7) forms a common surface with a first surface of the substrate, wherein the ink absorption layer that is post-crosslinkable by the action of high-energy radiation is arranged at least in a partial area above the first surface of the security element (6, 7), is a radically curing ink absorption layer and can be obtained by physically drying a dispersion based on unsaturated urethane acrylates.
A method for creating a virtual dental image (30, 41) from a 3D volume having volumetric image data, a sub-volume (8, 12, 15, 18) being defined from the 3D volume, wherein a virtual projection image (30, 41) is generated for this sub-volume (8, 12, 15, 18) from a specific irradiation direction by computer-aided computation of the volumetric image data in this irradiation direction and, in the determination of the sub-volume, specific disturbing sub-objects from the sub-volume are excised using a segmentation method, or these sub-objects are taken into consideration with a lower weighting in the computing of the volumetric image data in order to improve the examination of the sub-objects included in the sub-volume, characterized in that a plurality of projection images (30, 41) are created from different sub-volumes (8, 12, 15, 18) having different irradiation directions according to a specified schema, and that either an irradiation direction is defined in the palatinal direction towards the gum or in the lingual direction towards the tongue for each sub-volume (8, 12, 15, 18), or an irradiation direction is defined in the occlusal direction along an axis of the tooth for each sub-volume, the individual sub-volumes (8, 12, 15, 18) adjoining each other with no gaps or partially overlapping, so that a series of occlusal projection images over the entire dental arch (6, 7) is created.
A seat pad having a loading surface, wherein a lateral slit portion, extending from an outside towards an inside of the seat pad in a first lateral direction that is parallel to the loading surface, is formed; a longitudinal slit portion is provided at an end portion of the lateral slit portion, in a second lateral direction that is orthogonal to the first lateral direction and that is parallel to the loading surface; and the longitudinal slit portion extends from the lateral slit portion towards the loading surface in a thickness direction that is orthogonal to the loading surface, characterised in that lateral slit portions as defined above are provided separately in parts of the seat pad that are located on both sides in the first lateral direction.
A process for preparing microparticles comprising glatiramer acetate, the process comprising the steps of: a. preparing an internal aqueous phase comprising glatiramer acetate and water; b. preparing an organic phase comprising a biodegradable or non-biodegradable polymer and a water-immiscible volatile organic solvent; c. preparing an external aqueous phase comprising water and a surfactant; d. mixing the internal aqueous phase obtained in step (a) and the organic phase obtained in step (b) to form a water-in-oil (w/o) emulsion; e. mixing the water-in-oil (w/o) emulsion obtained in step (d) with the external water phase obtained in step (c) to obtain a water-in-oil-in-water (w/o/w) double emulsion; f. removing the organic solvent by mixing the water-in-oil-in-water (w/o/w) double emulsion obtained in step (e), and applying an air stream and a vacuum, wherein the vacuum is applied for at least about 3 hours; and g. drying to obtain microparticles of glatiramer acetate, said microparticles comprising less than about 1,000 ppm of residual organic solvent. a. preparing an internal aqueous phase comprising glatiramer acetate and water; b. preparing an organic phase comprising a biodegradable or non-biodegradable polymer and a water-immiscible volatile organic solvent; c. preparing an external aqueous phase comprising water and a surfactant; d. mixing the internal aqueous phase obtained in step (a) and the organic phase obtained in step (b) to form a water-in-oil (w/o) emulsion; e. mixing the water-in-oil (w/o) emulsion obtained in step (d) with the external water phase obtained in step (c) to obtain a water-in-oil-in-water (w/o/w) double emulsion; f. removing the organic solvent by mixing the water-in-oil-in-water (w/o/w) double emulsion obtained in step (e), and applying an air stream and a vacuum, wherein the vacuum is applied for at least about 3 hours; and g. drying to obtain microparticles of glatiramer acetate, said microparticles comprising less than about 1,000 ppm of residual organic solvent.
A sealing fixture for use in a pouch machine, comprising: a die backing member, including at least one clip fixedly mounted thereto, wherein the at least one clip includes a hook end, and has a first relaxed position and a second tension position; and a sealing die, including at least one receiver, disposed to receive the hook end, whereby when the hook end is received by the at least one receiver, and the clip is in the tension position, the sealing die is held against the die backing member, wherein one of the die backing member and sealing die includes a protrusion and the other of the die backing member and sealing die includes a mating recess, and wherein the protrusion mates with the recess thereby locating the sealing die with respect to the backing member, and wherein the clip is a lever actuated latch, and the hook end is the end of a curved latching spring. a die backing member, including at least one clip fixedly mounted thereto, wherein the at least one clip includes a hook end, and has a first relaxed position and a second tension position; and a sealing die, including at least one receiver, disposed to receive the hook end, whereby when the hook end is received by the at least one receiver, and the clip is in the tension position, the sealing die is held against the die backing member, wherein one of the die backing member and sealing die includes a protrusion and the other of the die backing member and sealing die includes a mating recess, and wherein the protrusion mates with the recess thereby locating the sealing die with respect to the backing member, and wherein the clip is a lever actuated latch, and the hook end is the end of a curved latching spring.
A convergent X-ray beam-generating device, comprising: an anode cap having a spherical, aspheric or parabolic geometric shape; an electron disperser element adapted to expand an electron beam coming from a source so as to generate a flow of divergent electrons; one or more magnetic and/or electrostatic lenses that is adapted to converge the divergent electrons in such a way that the emergent beam impacts perpendicularly upon a surface of the anode cap generating X-rays; a collimator cap with the same shape of the anode cap and coaxial to it and comprising small holes perforated on its entire surface which points to a focal point, the collimator cap is arranged so that the X-rays that are able to exit the thickness of the anode are collimated by the collimator cap by whose holes pointing toward the focal point can emerge X-ray convergent beam. an anode cap having a spherical, aspheric or parabolic geometric shape; an electron disperser element adapted to expand an electron beam coming from a source so as to generate a flow of divergent electrons; one or more magnetic and/or electrostatic lenses that is adapted to converge the divergent electrons in such a way that the emergent beam impacts perpendicularly upon a surface of the anode cap generating X-rays; a collimator cap with the same shape of the anode cap and coaxial to it and comprising small holes perforated on its entire surface which points to a focal point, the collimator cap is arranged so that the X-rays that are able to exit the thickness of the anode are collimated by the collimator cap by whose holes pointing toward the focal point can emerge X-ray convergent beam.
Composition containing a fixed combination of adapalene or a salt thereof and benzoyl peroxide for use in preventing acne atrophic scars over a period treatment of 24 weeks.
A detector system (100.3) for a mass spectrometer for detecting time-dependent two-dimensional distributions of ions that exit a mass analyzer of the mass spectrometer, the detector system comprising: (a) a metal channel dynode disposed within a high vacuum chamber of the mass spectrometer, said vacuum chamber comprising a wall having an aperture therethrough, said MCD comprising at least one perforated metal plate and configured to receive the exiting ions and eject electrons (e -) in response thereto; (b) an optically transparent plate or wall disposed against the vacuum chamber wall aperture and forming a vacuum seal therewith; (c) a phosphor coating disposed on the optically transparent plate or wall and within the vacuum chamber so as to receive the ejected electrons and to emit a proportionate quantity of photons in response thereto; (d) at least one direct current power supply electrically coupled to the MCD; and (e) an optical detector, the detector system further comprising (f) an image intensifier optically coupled between the optical detector and the optically transparent plate or wall so as to receive a quantity of photons (p) generated at the phosphor coating and to emit an amplified quantity of photons (p) proportionate to the quantity of photons towards the optical detector, wherein the image intensifier includes an evacuated housing and the optically transparent plate or wall comprises a portion of the housing.
Coaxial connector and cable assembly comprising a coaxial connector and a coaxial counter connector interconnectable to each other along a connector axis as well as a coaxial cable interconnected to the coaxial connector; the coaxial connector having a cable entry side for entry of the coaxial cable and an opposite coupling side for coupling with the coaxial counter connector along the connector axis, the coaxial connector including: a) an inner contact element, the inner contact element being electrically connected with an inner conductor of the coaxial cable; b) an outer contact element, the outer contact element being electrically connected with an outer conductor of the coaxial cable; c) a dielectric connector element, the dielectric connector element being radially arranged between the inner contact element and the outer contact element; d) a connector housing, the connector housing being arranged around the outer contact element; characterised in that: e) the inner contact element is axially locked against the dielectric connector element and the dielectric connector element is axially locked against the connector housing such that the coaxial cable is strain relieved in axial direction with respect to the connector housing and all axial force and in particular pulling stress that is exerted onto the coaxial cable, is transferred from an inner conductor via the inner contact element, the dielectric connector element and the outer contact element to the connector housing, without involving an outer conductor of coaxial cable. a) an inner contact element, the inner contact element being electrically connected with an inner conductor of the coaxial cable; b) an outer contact element, the outer contact element being electrically connected with an outer conductor of the coaxial cable; c) a dielectric connector element, the dielectric connector element being radially arranged between the inner contact element and the outer contact element; d) a connector housing, the connector housing being arranged around the outer contact element;
A lighting device for vehicle usable on a lighting tool for vehicle comprising: a socket including a base portion, and a first protrusion portion which protrudes from one face of the base portion; and a light emitting module which is provided at the first protrusion portion, and includes a light emitting element, characterized in that most of heat generated in the light emitting element is radiated to the outside from the base portion of a flange portion which is close to the light emitting module as the heat source and provided to come in contact with the lighting tool for vehicle, the socket contains a heat conductive resin of which heat conductivity is 7 W/(m•K) or more and 11 W/(m•K) or less, and when a maximum dimension of the base portion in a direction orthogonal to a center axis of the lighting device for vehicle is set to A1 (mm), a maximum dimension of the first protrusion portion in a direction orthogonal to the center axis is set to A2 (mm), and power which is applied to the light emitting module is set to W (watt), (A1-A2)/W is 1.0 (mm/W) or more and 6.5 (mm/W) or less. a socket including a base portion, and a first protrusion portion which protrudes from one face of the base portion; and a light emitting module which is provided at the first protrusion portion, and includes a light emitting element, characterized in that most of heat generated in the light emitting element is radiated to the outside from the base portion of a flange portion which is close to the light emitting module as the heat source and provided to come in contact with the lighting tool for vehicle, the socket contains a heat conductive resin of which heat conductivity is 7 W/(m•K) or more and 11 W/(m•K) or less, and when a maximum dimension of the base portion in a direction orthogonal to a center axis of the lighting device for vehicle is set to A1 (mm), a maximum dimension of the first protrusion portion in a direction orthogonal to the center axis is set to A2 (mm), and power which is applied to the light emitting module is set to W (watt), (A1-A2)/W is 1.0 (mm/W) or more and 6.5 (mm/W) or less.
A process for the manufacture of a bridge, wherein a pier as well as at least one bridge girder with end points (7, 9, 14) are erected in an approximately vertical position, characterized in that • at least one supporting rod with end points (5, 6, 8) is erected in an approximately vertical position, wherein • one end point of the supporting rod is hinged to the bridge girder, and either - according to a first variant - • one end point of the supporting rod is hinged to the pier, the bridge girder is brought into an approximately horizontal position by an approximately vertical motion of the end point of the bridge girder on the pier and the moved end point of the bridge girder is connected to the pier, or - according to a second variant - • one end point of the bridge girder is hinged to the pier, the bridge girder is brought into an approximately horizontal position by an approximately vertical motion of the end point of the supporting rod on the pier and the moved end point of the supporting rod is connected to the pier, • as well as that, in both variants, the projecting end point of the bridge girder is connected to an abutment or a further end point of a second bridge girder. • at least one supporting rod with end points (5, 6, 8) is erected in an approximately vertical position, wherein • one end point of the supporting rod is hinged to the bridge girder, and either - according to a first variant - • one end point of the supporting rod is hinged to the pier, the bridge girder is brought into an approximately horizontal position by an approximately vertical motion of the end point of the bridge girder on the pier and the moved end point of the bridge girder is connected to the pier, or - according to a second variant - • one end point of the bridge girder is hinged to the pier, the bridge girder is brought into an approximately horizontal position by an approximately vertical motion of the end point of the supporting rod on the pier and the moved end point of the supporting rod is connected to the pier, • as well as that, in both variants, the projecting end point of the bridge girder is connected to an abutment or a further end point of a second bridge girder.
A method for forming a blister pack, comprising: providing a lidding sheet comprising a first layer, the first layer comprising at least one hologram; placing the lidding sheet over a blister layer, the blister layer defining at least one opening, the at least one hologram disposed over the at least one opening; applying a plate defining a recess therein onto the lidding sheet, the recess disposed above the at least one hologram; and sealing the lidding sheet and the blister layer together under heating, wherein the blister layer and the lidding sheet define at least one cavity for holding at least one pharmaceutical dosage form therein. providing a lidding sheet comprising a first layer, the first layer comprising at least one hologram; placing the lidding sheet over a blister layer, the blister layer defining at least one opening, the at least one hologram disposed over the at least one opening; applying a plate defining a recess therein onto the lidding sheet, the recess disposed above the at least one hologram; and sealing the lidding sheet and the blister layer together under heating, wherein the blister layer and the lidding sheet define at least one cavity for holding at least one pharmaceutical dosage form therein.
An antibody, or antigen-binding portion thereof, capable of binding the human gamma isoform of protein kinase C (PKCg) or a proteolytic fragment of PKCg, wherein the antigen-binding portion of the antibody comprises a set of six CDRs: CDR-H1, CDR-H2, CDR-H3, CDR-L1, CDR-L2, and CDR-L3, which CDR set is selected from the group of CDR sets (CDR Set Nos. 1 to 3) having the six respective SEQ ID NOs: as follows: CDR Set No. CDR CDR Amino Acid Sequence SEQ ID NO: 1 CDR-H1 GFSLNYYA SEQ ID NO:3 CDR-H2 ITSDTT SEQ ID NO:4 CDR-H3 ASGGSTTSPAL SEQ ID NO:5 CDR-L1 QSVWSKNY SEQ ID NO:6 CDR-L2 SAS SEQ ID NO:7 CDR-L3 LGSYDCRSADCWT SEQ ID NO:8 2 CDR-H1 GFSLSSYA SEQ ID NO:9 CDR-H2 IISGGSA SEQ ID NO:10 CDR-H3 ARAKSGTYTGDYFTL SEQ ID NO:11 CDR-L1 ESIGNA SEQ ID NO:12 CDR-L2 RAS SEQ ID NO:13 CDR-L3 QSYVGSRSTGYNV SEQ ID NO:14 3 CDR-H1 GFTLTTYW SEQ ID NO:15 CDR-H2 ILTGSGST SEQ ID NO:16 CDR-H3 ARYGGDATYNENL SEQ ID NO:17 CDR-L1 QSVYNNNR SEQ ID NO:18 CDR-L2 GVS SEQ ID NO:19 CDR-L3 LGGYDCASADCYA SEQ ID NO:20