mhurhangee/ep-ind-claims huggingface dataset:
Peeling machine comprising feed means provided to feed an oblong product along an axis of rotation, and a rotating head installed rotating around said axis of rotation and provided with a through central cavity in which, during use, said oblong product to be worked is disposed through and on which a plurality of support sliders are installed to support respective tools and a plurality of adjustment units configured to move said support sliders in a radial direction with respect to said axis of rotation, said machine also comprising a first kinematic transmission configured to transmit motion from a first motor to said rotating head and to make the latter rotate, and a second kinematic transmission configured to transmit motion from a second motor to said adjustment units and to simultaneously adjust the radial position of said tools, characterized in that each adjustment unit comprises a worm screw disposed with its screwing axis in a radial direction with respect to said axis of rotation and screwed onto said support slider, in that said second kinematic transmission is kinematically connected to said worm screws by means of a toothed crown installed on said rotating head, and in that it comprises a mechanical differential device kinematically connected between said second motor, said first kinematic transmission and said second kinematic transmission, said differential device being configured to take said toothed crown into rotation at the same speed as said rotating head and to keep said support sliders in a fixed radial position when said second motor is not driven, and to make said toothed crown rotate with a differential speed with respect to said rotating head and to move said support sliders radially when said second motor is driven.
Wall structure with noise damping insulation properties, for an air intake manifold of a gas turbine, comprising first means (31, 33) for mechanically supporting an outer sheet, which separates the spaces on both sides of the wall in an airtight manner, and further comprising second means (25, 34-36) for establishing noise damping insulation between the spaces on both sides of the wall, whereby said second means (25, 34-36) is secured to said first means (31, 33), and said second means (25, 34-36) is integrated in said first means (31, 33); the first means comprising a plurality of I-beams, which are arranged in a common plane with their webs oriented perpendicular to said common plane, the outer sheet is secured to a first one of the flanges of the I-beams, and said second means comprising the space between the I-beams being filled with a noise damping insulation material; wherein the noise damping insulation material is enclosed between said outer sheet and perforated sheets, which are secured to a second one of the flanges of the I-beams; the wall structure being characterised in that the I-beams and the outer sheet are made of a carbon steel and the perforated sheets are made of stainless steel, and in that intermediate strips of stainless steel are provided between the perforated sheets and the second one of the flanges of the I-beams.
System of anchoring and mooring of floating wind turbine towers in waters typically deeper than 30 meters, forming a windpark-structure, comprising anchors, vertical mooring lines, border mooring lines, major buoys a floating meshwork, ropes (optionally with weights and, typically, signal buoys, comprising each wind turbine tower an upper part exposed to the winds, a submerged lower part or shaft, and characterized in that each wind turbine tower comprises compartments, usually a center compartment, a sliding ring, a stabilizing bottom weight, an aerodynamic encasement with openings, a water-air-pipe system and connective valves.
A method for high-resolution optical scanning of a specimen, preferably by using a laser scanning fluorescence microscope, wherein the specimen comprises a substance, which can be put in different energy states - excited state and deexcited state, wherein the specimen is illuminated with light of a wavelength of the excitation spectrum of the substance for the generation by region of the excited energy state, wherein the specimen is illuminated with light of a suitable deexcitation wavelength in a focus edge region of the excitation for the generation of the deexcited state, and wherein emission light emitted by the specimen, which results from spontaneous disintegration of remaining excited energy states, is detected by means of a detection device, wherein the specimen comprises at least one further substance, which can be put in an excited energy state and a deexcited state, wherein excitation spectrum and deexcitation wavelength differ from that of the first substance, wherein during scanning of the specimen the steps of excitation and/or deexcitation and/or detection for the individual substances (S1, S2) are executed at separate times, wherein the time sequence is determined in accordance with the size of the respective deexcitation wavelengths (4, 8) of the substances (S1, S2) such that in each scanning step it is started respectively with the substance with the longest deexcitation wavelength, wherein a sequential acquisition of the individual substances (S1, S2) is carried out by image or in batches, and wherein during the illumination of the specimen with an excitation wavelength of a substance the detection of emission light of another substance, the excitation spectrum of which comprises the irradiated deexcitation wavelength, is suppressed.
A method of forming a dielectric structure, comprising: forming a first portion of the dielectric structure; forming a second portion of the dielectric structure over and directly against the first portion; the second portion consisting of a composition having a dielectric constant of greater than or equal to 25; forming a third portion of the dielectric structure over and directly against the second portion; wherein the first and third portions comprise a higher volume percent amorphous material than the second portion; and characterized by: the first portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the first portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the first portion having a dielectric constant of less than or equal to 20; the third portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the third portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the third portion having a dielectric constant of less than or equal to 20; wherein the first and third portions are different in composition from one another. forming a first portion of the dielectric structure; forming a second portion of the dielectric structure over and directly against the first portion; the second portion consisting of a composition having a dielectric constant of greater than or equal to 25; forming a third portion of the dielectric structure over and directly against the second portion; wherein the first and third portions comprise a higher volume percent amorphous material than the second portion; and characterized by: the first portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the first portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the first portion having a dielectric constant of less than or equal to 20; the third portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the third portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the third portion having a dielectric constant of less than or equal to 20; wherein the first and third portions are different in composition from one another. the first portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the first portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the first portion having a dielectric constant of less than or equal to 20; the third portion comprising a homogeneous mixture of two oxides; one of said two oxides of the mixture of the third portion having a dielectric constant of greater than or equal to 25, and the other of said two oxides of the mixture of the third portion having a dielectric constant of less than or equal to 20; wherein the first and third portions are different in composition from one another.
An automated method for processing a subject bone scan image and quantifying bone lesion burden, the method comprising the steps of: providing a subject bone scan image formed from pixels; performing atlas-based anatomic segmentation of the image in order to identify a set of anatomic regions included on the image; normalizing the intensity of the image such that the intensity of normal bone in the image corresponds with that of normal bone in one or more reference bone scan images; detecting bone lesions in each region of the image by comparing the intensities of pixels in the region with a region specific intensity threshold derived from the one or more reference bone scan images; and, quantifying bone lesion burden using characteristics of a set of pixels corresponding to detected bone lesions. providing a subject bone scan image formed from pixels; performing atlas-based anatomic segmentation of the image in order to identify a set of anatomic regions included on the image; normalizing the intensity of the image such that the intensity of normal bone in the image corresponds with that of normal bone in one or more reference bone scan images; detecting bone lesions in each region of the image by comparing the intensities of pixels in the region with a region specific intensity threshold derived from the one or more reference bone scan images; and, quantifying bone lesion burden using characteristics of a set of pixels corresponding to detected bone lesions.
A catheter comprising: a tubular body extending centrally along a longitudinal axis from a first end to a second end; the tubular body including an outer surface spaced apart from an inner surface, and wherein the inner surface defines a lumen; an entrance opening formed at the first end of the tubular body intersecting the longitudinal axis in fluid communication with the lumen; a bulbous head at the first end including an outer diameter greater than that of the tubular body; a plurality of distinct longitudinally extending convex surfaces positioned circumferentially about the longitudinal axis collectively defining the outer surface of the tubular body; and a plurality of distinct longitudinally extending concave channels positioned circumferentially about the longitudinal axis collectively defining the inner surface of the tubular body. a tubular body extending centrally along a longitudinal axis from a first end to a second end; the tubular body including an outer surface spaced apart from an inner surface, and wherein the inner surface defines a lumen; an entrance opening formed at the first end of the tubular body intersecting the longitudinal axis in fluid communication with the lumen; a bulbous head at the first end including an outer diameter greater than that of the tubular body; a plurality of distinct longitudinally extending convex surfaces positioned circumferentially about the longitudinal axis collectively defining the outer surface of the tubular body; and a plurality of distinct longitudinally extending concave channels positioned circumferentially about the longitudinal axis collectively defining the inner surface of the tubular body.
A method for a logon procedure in a satellite communication system comprising at least one terminal, a satellite and either a gateway proxy on-board the satellite or a gateway, the method comprising transmitting a logon burst signal from a terminal of the satellite communication system to said gateway proxy on-board the satellite or said gateway, said logon burst signal being a burst signal specifically used during the logon procedure and comprising one or more of a transmit parameter field corresponding to a signal transmit time of said logon burst signal in said terminal or a transmit parameter field corresponding to a signal transmit power level of said logon burst signal in said terminal or a transmit parameter field corresponding to a signal transmit frequency of said logon burst signal in said terminal.
A method, comprising: detecting a single radio voice call continuity activation event indicating a handover of a user equipment between a packet switched domain and a circuit switched domain, wherein a security key set used to protect control plane signaling prior to the handover is either a circuit switched security key or a packet switched security key; consistent with a serving radio network subsystem relocation procedure, suspending control plane signaling radio bearers; resetting the suspended signaling radio bearers; and resuming the suspended signaling radio bearers in the domain handed over to, where resuming comprises protecting control plane signaling radio bearers of a domain handed over to, using a same mapped security key set that is used to cipher user plane radio access bearers in the domain handed over to, wherein the mapped security key set is mapped from a security key set used to protect user plane signaling prior to the handover regardless of the security key set that was used to protect control plane signaling prior to the handover. detecting a single radio voice call continuity activation event indicating a handover of a user equipment between a packet switched domain and a circuit switched domain, wherein a security key set used to protect control plane signaling prior to the handover is either a circuit switched security key or a packet switched security key; consistent with a serving radio network subsystem relocation procedure, suspending control plane signaling radio bearers; resetting the suspended signaling radio bearers; and resuming the suspended signaling radio bearers in the domain handed over to, where resuming comprises protecting control plane signaling radio bearers of a domain handed over to, using a same mapped security key set that is used to cipher user plane radio access bearers in the domain handed over to,
A method for providing location description over a network (145, 110), comprising: receiving from a client device (101, 102, 103) associated with a member of a social network, a request for location information in the social network associated with a GPS coordinate; providing to the client device (101, 102, 103), in response to the request for location information, a location name associated with another member of the social network based on the GPS coordinate; receiving from the client device (101, 102, 103), in response to the provided location name, another location name; associating the other location name with the GPS coordinate and with the member in the social network, to enable another request for location information associated with the GPS coordinate to return at least the location name and the other location name; and characterized by: in response to the other request by a further member of the social network for location information, providing the location name and at least the other location name, ordered based on a relevancy score and a degree of separation between the further member and the respective members within the social network which are associated with the location name and the other location name. receiving from a client device (101, 102, 103) associated with a member of a social network, a request for location information in the social network associated with a GPS coordinate; providing to the client device (101, 102, 103), in response to the request for location information, a location name associated with another member of the social network based on the GPS coordinate; receiving from the client device (101, 102, 103), in response to the provided location name, another location name; associating the other location name with the GPS coordinate and with the member in the social network, to enable another request for location information associated with the GPS coordinate to return at least the location name and the other location name; and characterized by: in response to the other request by a further member of the social network for location information, providing the location name and at least the other location name, ordered based on a relevancy score and a degree of separation between the further member and the respective members within the social network which are associated with the location name and the other location name.
A display device (100, 200) comprising: a display; a plurality of first reflectors each having a first bottom part that is disposed on a rear face side of the display and a first peripheral part that extends from an outer edge of the first bottom part toward a rear face of the display, with a surface of the first bottom part and a surface of the first peripheral part forming an obtuse angle; a light processing member disposed between the display and the first reflectors, the light processing member being spaced apart from the first reflectors by a specific distance; and a plurality of light sources disposed on the faces of the first bottom parts, respectively, wherein each of the first bottom parts has a polygonal shape, characterized in that: the first reflectors are integrally formed with respect to each other; and the first reflectors are formed integrally from a single sheet-form member which, when in an unfolded state, is formed with a plurality of holes, each hole being defined by boundaries of adjacent connecting parts each forming one face of one first peripheral part and one face of an adjacent first peripheral part. a display; a plurality of first reflectors each having a first bottom part that is disposed on a rear face side of the display and a first peripheral part that extends from an outer edge of the first bottom part toward a rear face of the display, with a surface of the first bottom part and a surface of the first peripheral part forming an obtuse angle; a light processing member disposed between the display and the first reflectors, the light processing member being spaced apart from the first reflectors by a specific distance; and a plurality of light sources disposed on the faces of the first bottom parts, respectively, wherein each of the first bottom parts has a polygonal shape, characterized in that: the first reflectors are integrally formed with respect to each other; and the first reflectors are formed integrally from a single sheet-form member which, when in an unfolded state, is formed with a plurality of holes, each hole being defined by boundaries of adjacent connecting parts each forming one face of one first peripheral part and one face of an adjacent first peripheral part. the first reflectors are integrally formed with respect to each other; and the first reflectors are formed integrally from a single sheet-form member which, when in an unfolded state, is formed with a plurality of holes, each hole being defined by boundaries of adjacent connecting parts each forming one face of one first peripheral part and one face of an adjacent first peripheral part.
A method for producing a water absorbent resin, comprising: a polymerization step to polymerize an unsaturated monomer, and; a drying step in a drying apparatus to dry a particulate hydrogel crosslinked polymer, which is obtained by micronization of a hydrogel crosslinked polymer during or after the polymerization and which has a solid content concentration of 45% by weight or more, wherein, the drying apparatus used in the drying step is a through-circulation belt type dryer, an amount of a peroxide in the particulate hydrogel crosslinked polymer to be dried in the drying step is 1 to 100 ppm relative to the weight of the solid content of the particulate hydrogel crosslinked polymer, and a drying temperature of the particulate hydrogel crosslinked polymer in the drying step is 160°C or more and, a step of reducing peroxide to perform a heat treatment of the particulate hydrogel crosslinked polymer at the temperature of less than 160°C before the drying step, to reduce the amount of the peroxide in the particulate hydrogel crosslinked polymer. a polymerization step to polymerize an unsaturated monomer, and; a drying step in a drying apparatus to dry a particulate hydrogel crosslinked polymer, which is obtained by micronization of a hydrogel crosslinked polymer during or after the polymerization and which has a solid content concentration of 45% by weight or more, wherein, the drying apparatus used in the drying step is a through-circulation belt type dryer, an amount of a peroxide in the particulate hydrogel crosslinked polymer to be dried in the drying step is 1 to 100 ppm relative to the weight of the solid content of the particulate hydrogel crosslinked polymer, and a drying temperature of the particulate hydrogel crosslinked polymer in the drying step is 160°C or more and,
The use of a support layer during slitting of a laminate or structure into a strip to reduce variation in the width of the slit strip, the laminate or structure comprising a metal-comprising conductive layer and a fibrous layer; wherein the support layer adheres to an outer face of the laminate or structure and is in contact with the conductive layer; and further wherein the support layer comprises a flexible polymeric sheet which comprises a polyalphaolefin, a polyalphaolefin copolymer or a polyethylene terephthalate sheet material.
A composite comprising: a graphene sheet material including at least one of a monoatomic layer of a planar graphene sheet, and a laminate of 10 layers or less of the planar graphene sheets, each of the planar graphene sheets having a diameter within a range of more than 50 nm φ and 100 μm φ or less; active material particles including a titanium-niobium composite oxide; and a carbon layer which includes a carbon material having a π-electron system and is located between the graphene sheet material and the active material particles. a graphene sheet material including at least one of a monoatomic layer of a planar graphene sheet, and a laminate of 10 layers or less of the planar graphene sheets, each of the planar graphene sheets having a diameter within a range of more than 50 nm φ and 100 μm φ or less; active material particles including a titanium-niobium composite oxide; and a carbon layer which includes a carbon material having a π-electron system and is located between the graphene sheet material and the active material particles.