mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a 3D item using a fused deposition modeling 3D printer , the 3D item comprising an electrically conductive coil of at least part of an electrically conductive wire , wherein the method comprises the step of: printing, during a printing stage, 3D printable material to provide the 3D item comprising the electrically conductive coil , wherein the 3D printable material comprises the electrically conductive wire and an electronic component in electrically conductive contact with the electrically conductive wire . printing, during a printing stage, 3D printable material to provide the 3D item comprising the electrically conductive coil , wherein the 3D printable material comprises the electrically conductive wire and an electronic component in electrically conductive contact with the electrically conductive wire .
A measurement method in a cell handover procedure, the measurement method being applied in a mobile communications system, the mobile communication system comprising: one or more transparent Relay Stations, RSs each of which does not transmit downlink synchronous channel message, system configuration message and resource distribution broadcast message; one or more non-transparent RSs each of which does transmit downlink synchronous channel message, system configuration message and resource distribution broadcast message; one or more Base Stations, BSs; and one or more User Terminals, UTs, the measurement method comprising: A. after network measurement is triggered, scheduling , by a BS within the one or more BSs, resources for a UT within the one or more UTs, wherein the scheduled resources for the UT are for transmitting uplink data or a dedicated preamble; B. measuring , by the BS and one or more transparent RSs and non-transparent RSs, the uplink data or the dedicated preamble transmitted by the UT on the resources scheduled by the BS, and receiving , by the BS, uplink signal detection information derived from measuring the uplink data or the dedicated preamble, wherein the uplink signal detection information is reported by the one or more transparent RSs and non-transparent RSs; and C. determining , by the BS, a target node to which the UT will handover according to a measurement result of the measuring by the BS and/or the uplink signal detection information, the measurement method is characterized in that after the network measurement is triggered, when the BS detects that the UT has uplink data to transmit, then the resources scheduled by the BS are set to be common frequency band resources; and after the network measurement is triggered, when the BS detects that the UT does not have uplink data to transmit, then the resources scheduled by the BS are set to be the dedicated preamble and corresponding access resources for the dedicated preamble, wherein the common frequency band resources refer to frequency band resources commonly used by all transparent RSs or some of transparent RSs within the one or more transparent RSs in the mobile communications system. A. after network measurement is triggered, scheduling , by a BS within the one or more BSs, resources for a UT within the one or more UTs, wherein the scheduled resources for the UT are for transmitting uplink data or a dedicated preamble; B. measuring , by the BS and one or more transparent RSs and non-transparent RSs, the uplink data or the dedicated preamble transmitted by the UT on the resources scheduled by the BS, and receiving , by the BS, uplink signal detection information derived from measuring the uplink data or the dedicated preamble, wherein the uplink signal detection information is reported by the one or more transparent RSs and non-transparent RSs; and C. determining , by the BS, a target node to which the UT will handover according to a measurement result of the measuring by the BS and/or the uplink signal detection information,
A crystalline form of zoledronic acid comprising zoledronic acid, L-carnitine or a fatty acid ester of L-carnitine, and optionally water.
A radiation detector element comprising: - a stack of layers superimposed in a stacking direction (Z), the stack having a first face and a second face and comprising a radiation-absorbing layer consisting of a first semiconductor material having a first band gap value and at least one barrier layer consisting of a second semiconductor material having a second band gap value, the second band gap value being strictly greater than the first band gap value; and - a reading circuit delimited in the stacking direction (Z) by the first face ; the absorbing layer comprising a first portion having a doping of a first type chosen from among n-type doping and p-type doping, and a second portion having a doping of a second type chosen from among n-type doping and p-type doping, the second type of doping being different from the first type of doping, the first portion and the second portion forming a first p/n junction; the barrier layer including a first conducting zone having a doping of the first type, the first conducting zone and the first portion being superimposed; the stack further delimiting a primary hole traversing each of the layers of the stack , the primary hole receiving at least part of a primary electrode electrically connecting the second portion to the reading circuit and traversing the first face , the first p/n junction surrounding the primary electrode in a plane orthogonal to the stacking direction (Z), characterized in that the first conducting zone has a free carrier density greater than or equal to 1.10 17 /cm -3 , the first conductive zone being electrically connected to the reading circuit by a secondary electrode . - a stack of layers superimposed in a stacking direction (Z), the stack having a first face and a second face and comprising a radiation-absorbing layer consisting of a first semiconductor material having a first band gap value and at least one barrier layer consisting of a second semiconductor material having a second band gap value, the second band gap value being strictly greater than the first band gap value; and - a reading circuit delimited in the stacking direction (Z) by the first face ;
A composite neutron shield comprising: a plurality of absorption layers each comprising a tungsten boride or a tungsten carbide; and at least one moderating layer comprising a metal hydride; wherein each moderating layer is between at least two absorption layers; configured such that in use the outermost absorption layer is between the adjacent moderating layer and a neutron source. a plurality of absorption layers each comprising a tungsten boride or a tungsten carbide; and at least one moderating layer comprising a metal hydride; wherein each moderating layer is between at least two absorption layers; configured such that in use the outermost absorption layer is between the adjacent moderating layer and a neutron source.
System for providing a conduit sealingly to a through-opening in a plate-shaped construction element so that at least one pipe and/or cable can extend through the conduit and so that after sealing remaining space in the conduit a completely sealed-off pipe and/or cable penetration through the plate-shaped construction element is obtained, wherein the system is such that it is mechanically mountable, wherein the system is further such that it is mountable from only one side of the plate-shaped construction element , wherein the system comprises: a conduit-part having a conduit for extending from and/or through the through-opening and having outside the conduit a circumferentially extending member for placement at a proximal side (p) of the plate-shaped construction element parallel to a circumference of the through-opening ; an anchor-part for placement at a distal side (D) of the plate-shaped construction element at a number of positions along a circumference of the through-opening ; and at least one connecting element for connecting the circumferentially extending member of the conduit-part with the anchor-part , wherein the anchor-part is suitable for being put from the proximal site (p) of the plate-shaped construction element , through the through-opening , at the distal side of the plate-shaped construction element , characterized in that one of the at least one connecting element for connecting the circumferentially extending member of the conduit-part with the anchor-part allows for placement of the anchor-part at the distal side (D) of the plate-shaped construction element at the number of positions along a circumference of the through-opening whilst being connected to the conduit-part , wherein whilst being connected the anchor-part can be put through the through-opening and placed at the distal side (D) of the plate-shaped construction element .
A ceramic honeycomb structure comprising a plurality of cells , each cell comprising a peripheral wall delimiting a through cavity , the through cavity opening out on a first face and on a second face respectively at a first opening and a second opening , wherein at least one cell comprises a rim integral with the wall of the cell and protruding from said wall at least at one of the openings .
A cable-driven surgical tool comprising: an elongate shaft defining a lumen that extends between a proximal end and a distal end of the elongate shaft ; an end effector operably coupled to the distal end of the elongate shaft ; and a plurality of cable systems (630a-d) extending within the lumen and operably engaging the end effector , each cable system (630a-d) comprising a distal cable portion (632a-d) and a proximal cable portion (634a-d) adjoined by a releasable interconnect, characterised in that the distal cable portion (632a-d) and the proximal cable portion (634a-d) comprise different diameters of cables. an elongate shaft defining a lumen that extends between a proximal end and a distal end of the elongate shaft ; an end effector operably coupled to the distal end of the elongate shaft ; and a plurality of cable systems (630a-d) extending within the lumen and operably engaging the end effector , each cable system (630a-d) comprising a distal cable portion (632a-d) and a proximal cable portion (634a-d) adjoined by a releasable interconnect, characterised in that
A component which is formed with a plurality of layers (1.1, ...,1.X) arranged one over the other and in which a material removal has been performed using a laser beam to form a depression on the surface of the component having a predetermined depth proceeding from a surface of the component , in which at least one of the layers (1.1, .....1.X) is formed from a fiber-reinforced plastic material, wherein said at least one layer (1.1, ..... 1.X) is/are formed with a plastic and/or fibers containing pigments or employing fibers formed with or from carbon, and a further layer without color pigments, with white pigments or with significantly fewer pigments than in at least one layer (1.1, .... 1.X) from which a material removal has been performed to form a depression, is arranged in a depth inside the component such that the surface which faces in the direction of the focal spot of the laser beam incident on the surface of the further layer is arranged in the plane up to which the material removal is to be performed, and in this case the material of the further layer has a reflectivity of the laser beam used for a material removal which has at least one wavelength which is at least 5% greater than the reflectivity of the at least one layer (1.1, ...., 1.X) formed with fiber-reinforced plastic, wherein after an irradiation using a laser beam in a region of the surface, a material removal has been performed proceeding from the component surface up to the surface of the further layer facing in the direction of the incident laser beam to form a depression. a further layer without color pigments, with white pigments or with significantly fewer pigments than in at least one layer (1.1, .... 1.X) from which a material removal has been performed to form a depression, is arranged in a depth inside the component such that the surface which faces in the direction of the focal spot of the laser beam incident on the surface of the further layer is arranged in the plane up to which the material removal is to be performed, and in this case the material of the further layer has a reflectivity of the laser beam used for a material removal which has at least one wavelength which is at least 5% greater than the reflectivity of the at least one layer (1.1, ...., 1.X) formed with fiber-reinforced plastic, wherein after an irradiation using a laser beam in a region of the surface, a material removal has been performed proceeding from the component surface up to the surface of the further layer facing in the direction of the incident laser beam to form a depression.
A method for making a wax model for manufacturing a part, such as a turbine vane, said part comprising at least one cavity, the method comprising the steps of: arranging at least two core elements made of a ceramic material in a wax mould , said core elements having, at least partially, a shape complementary to the cavity of the part to be manufactured, and injecting wax into the wax mould, around the core elements , so as to form the wax model, wherein the two core elements are assembled prior to the injection of wax by at least one staple , said staple including a central portion from which two branches extend, each branch being fitted into an orifice formed in one of the core elements , and wherein at least one orifice of one of the core elements is an open-through orifice, the corresponding branch of the staple passing through said orifice and the free end of said branch being folded over the corresponding core so as to block the staple in position. arranging at least two core elements made of a ceramic material in a wax mould , said core elements having, at least partially, a shape complementary to the cavity of the part to be manufactured, and injecting wax into the wax mould, around the core elements , so as to form the wax model, wherein the two core elements are assembled prior to the injection of wax by at least one staple , said staple including a central portion from which two branches extend, each branch being fitted into an orifice formed in one of the core elements , and wherein at least one orifice of one of the core elements is an open-through orifice, the corresponding branch of the staple passing through said orifice and the free end of said branch being folded over the corresponding core so as to block the staple in position.
An external charger for wirelessly providing energy to an implantable medical device, IMD, comprising: a charging coil configured when energized by a drive signal to produce a magnetic field to wirelessly provide energy to the IMD as a coupled system; a sense coil, wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry configured to determine a resonant frequency of the coupled system using the induced signal, and determine using the resonant frequency the position of the charging coil with respect to the IMD. a charging coil configured when energized by a drive signal to produce a magnetic field to wirelessly provide energy to the IMD as a coupled system; a sense coil, wherein the sense coil is configured to be induced by the magnetic field with an induced signal affected by a position of the charging coil with respect to the IMD; and control circuitry configured to determine a resonant frequency of the coupled system using the induced signal, and determine using the resonant frequency the position of the charging coil with respect to the IMD. determine a resonant frequency of the coupled system using the induced signal, and determine using the resonant frequency the position of the charging coil with respect to the IMD.
An inkjet ink, comprising: (A) a terpene phenol resin having a hydroxyl value of 65 to 135 mgKOH/g; (B) ethanol; and (C) 1-propanol. (A) a terpene phenol resin having a hydroxyl value of 65 to 135 mgKOH/g; (B) ethanol; and (C) 1-propanol.
A remote radio unit, RRU, comprising hardware processing circuitry configured to: receive an uplink communication via an air interface from a user equipment, LTE; remove an uplink cyclic prefix, CP, from the uplink communication; convert, by performing fast Fourier transform, FFT, on the uplink communication after removing the uplink CP, the uplink communication from an uplink time domain signal to an uplink frequency domain signal; communicate the uplink frequency domain signal to a baseband unit, BBU, via a physical communication link; and receive a downlink communication from the BBU via the physical communication link, the downlink communication comprising a downlink time domain signal obtained by performing an inverse FFT, IFFT, processing at the BBU, wherein the downlink communication includes a downlink CP. receive an uplink communication via an air interface from a user equipment, LTE; remove an uplink cyclic prefix, CP, from the uplink communication; convert, by performing fast Fourier transform, FFT, on the uplink communication after removing the uplink CP, the uplink communication from an uplink time domain signal to an uplink frequency domain signal; communicate the uplink frequency domain signal to a baseband unit, BBU, via a physical communication link; and receive a downlink communication from the BBU via the physical communication link, the downlink communication comprising a downlink time domain signal obtained by performing an inverse FFT, IFFT, processing at the BBU, wherein the downlink communication includes a downlink CP.
Process for producing alcohols by continuous hydrogenation of C4 to C20 aldehydes in at least two hydrogenation stages, wherein a stream containing the C4 to C20 aldehydes to be hydrogenated is hydrogenated with a hydrogen-containing gas over an activated metal catalyst based on a nickel metal foam in the liquid phase in the first hydrogenation stage comprising at least one reactor, wherein a crude product stream containing at least alcohols and unconverted aldehydes, of which at least a portion is passed to the second hydrogenation stage, is withdrawn from the at least one reactor, at least a portion of the crude product stream is hydrogenated with a hydrogen-containing gas over a supported catalyst comprising a catalytically active component and a support material in the liquid phase in the second hydrogenation stage comprising at least one reactor operated in straight pass, wherein the catalytically active component is selected from the group consisting of nickel, copper, chromium and mixtures thereof, and wherein the support material consists to an extent of more than 90% by weight of an oxidic material selected from the group consisting of aluminum oxide, aluminum silicate, silicon dioxide, titanium dioxide, zirconium oxide and mixtures of two or more thereof. a stream containing the C4 to C20 aldehydes to be hydrogenated is hydrogenated with a hydrogen-containing gas over an activated metal catalyst based on a nickel metal foam in the liquid phase in the first hydrogenation stage comprising at least one reactor, wherein a crude product stream containing at least alcohols and unconverted aldehydes, of which at least a portion is passed to the second hydrogenation stage, is withdrawn from the at least one reactor, at least a portion of the crude product stream is hydrogenated with a hydrogen-containing gas over a supported catalyst comprising a catalytically active component and a support material in the liquid phase in the second hydrogenation stage comprising at least one reactor operated in straight pass, wherein the catalytically active component is selected from the group consisting of nickel, copper, chromium and mixtures thereof, and wherein the support material consists to an extent of more than 90% by weight of an oxidic material selected from the group consisting of aluminum oxide, aluminum silicate, silicon dioxide, titanium dioxide, zirconium oxide and mixtures of two or more thereof.
A brake disc comprising a pair of disc bodies each having, on a principal surface thereof, a plurality of heat radiating members projecting from the principal surface, the pair of disc bodies being configured to sandwich therebetween a wheel for railway vehicle with the heat radiating members , and the wheel configured to being provided with a second positioning unit , wherein each of the disc bodies includes a first positioning unit projecting more than the plurality of heat radiating members in a height direction of the heat radiating members or a first positioning unit located nearer to a root part of the heat radiating member than a distal end of the plurality of heat radiating members in the height direction of the heat radiating members , wherein the first positioning unit is configured to position each of the pair of the disc bodies with respect to the wheel by being engageable with the second positioning unit ; characterised in that the first positioning unit includes a side surface having a pair of flat surfaces opposed to each other, and a pair of curved surfaces connecting the pair of flat surfaces . a plurality of heat radiating members projecting from the principal surface, the pair of disc bodies being configured to sandwich therebetween a wheel for railway vehicle with the heat radiating members , and the wheel configured to being provided with a second positioning unit , wherein each of the disc bodies includes a first positioning unit projecting more than the plurality of heat radiating members in a height direction of the heat radiating members or a first positioning unit located nearer to a root part of the heat radiating member than a distal end of the plurality of heat radiating members in the height direction of the heat radiating members , wherein the first positioning unit is configured to position each of the pair of the disc bodies with respect to the wheel by being engageable with the second positioning unit ; characterised in that the first positioning unit includes a side surface having a pair of flat surfaces opposed to each other, and a pair of curved surfaces connecting the pair of flat surfaces .