mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a part (21, 27) in stainless steel resistant to wear and corrosion for nuclear reactor, the said method comprising the steps of: - providing a blank in stainless steel; - shaping the blank; - finishing the blank to form the part (21, 27) in stainless steel, the finishing step allowing: - the prevented onset of a work hardness at the outer surface (29, 31) of the part (21, 27), or - the removal of work hardness on the outer surface (29, 31) of the part (21, 27), the finishing step allowing the removal of surface layers on the outer surface (29, 31) of the part (21, 27), the finishing step comprising at least one tribo-finishing of the outer surface (29, 31) of the part (21, 27) in stainless steel, - hardening the outer surface (29, 31) of the part (21, 27) by diffusing one or more atomic species. - providing a blank in stainless steel; - shaping the blank; - finishing the blank to form the part (21, 27) in stainless steel, the finishing step allowing: - the prevented onset of a work hardness at the outer surface (29, 31) of the part (21, 27), or - the removal of work hardness on the outer surface (29, 31) of the part (21, 27), the finishing step allowing the removal of surface layers on the outer surface (29, 31) of the part (21, 27), the finishing step comprising at least one tribo-finishing of the outer surface (29, 31) of the part (21, 27) in stainless steel, - the prevented onset of a work hardness at the outer surface (29, 31) of the part (21, 27), or - the removal of work hardness on the outer surface (29, 31) of the part (21, 27), the finishing step allowing the removal of surface layers on the outer surface (29, 31) of the part (21, 27), the finishing step comprising at least one tribo-finishing of the outer surface (29, 31) of the part (21, 27) in stainless steel, - hardening the outer surface (29, 31) of the part (21, 27) by diffusing one or more atomic species.
A light-emitting device comprising: a light-emitting structure comprising a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a reflective electrode under the light-emitting structure; a first metal layer disposed under the reflective electrode and electrically connected to the second conductivity type semiconductor layer; a second metal layer disposed under the reflective electrode and insulated from the first metal layer; a first insulating layer between the first metal layer and the second metal layer; an electrode electrically connected to the first metal layer and spaced apart from a lateral side of the light-emitting structure; and a contact part electrically connecting the second metal layer to the first conductivity type semiconductor layer, wherein the first metal layer comprises a first region making contact with a bottom of the second conductivity type semiconductor layer, and a second region extending outward from the first region, wherein the contact part is disposed through the first insulating layer, wherein the electrode spaced apart from the lateral side of the light-emitting structure makes contact with a top surface of the first metal layer, wherein a first region of the contact part makes contact with a top surface of the first conductivity type semiconductor layer, and a second region of the contact part is disposed at lateral sides of the active layer and the second conductivity type semiconductor layer, the light-emitting device further comprising a second insulating layer disposed between the second region of the contact part and the active layer, and between the second region of the contact part and the second conductivity type semiconductor layer, wherein one end of the second insulating layer is disposed on the first conductivity type semiconductor layer, and the other end of the second insulating layer is disposed on the first insulating layer. a light-emitting structure comprising a first conductivity type semiconductor layer, an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a reflective electrode under the light-emitting structure; a first metal layer disposed under the reflective electrode and electrically connected to the second conductivity type semiconductor layer; a second metal layer disposed under the reflective electrode and insulated from the first metal layer; a first insulating layer between the first metal layer and the second metal layer; an electrode electrically connected to the first metal layer and spaced apart from a lateral side of the light-emitting structure; and a contact part electrically connecting the second metal layer to the first conductivity type semiconductor layer,
A GPS-at-Geo system for acquiring and tracking GPS signals from a GPS sender and navigating a GEO spacecraft based on the GPS signals, the GPS-at-Geo system comprising: a conical mode helix antenna comprises a single conductor, which is wound into a helical shape, and a conical shape with a bottom diameter larger than a top diameter, wherein a winding circumference through an entire height of the antenna is larger than one operating wavelength of a GPS signal, resulting in a conical mode helix antenna configured to receive GPS signals including side-lobe signals and main-beam signals, the conical mode helix antenna configured to operate in a conical mode, the conical mode helix antenna provides a higher gain in the side-lobe signals of the GPS signals than in the main-beam signals of the GPS signals or the conical mode helix antenna, such that when the GPS-at-Geo system is in GEO orbit and outside of a Nadir direction of the GPS sender, the conical mode helix antenna provides a higher gain in the side-lobe signals of the GPS signals than at Nadir; a GPS receiver having an input and an output, the input of the GPS receiver configured to receive the GPS signals from the conical mode receive antenna, the GPS receiver configured to track the GPS signals and to provide navigation data for a GEO spacecraft; and a processor having an input and an output, the input of the processor configured to receive the navigation data, the processor configured to process the navigation data for the GEO spacecraft. a conical mode helix antenna comprises a single conductor, which is wound into a helical shape, and a conical shape with a bottom diameter larger than a top diameter, wherein a winding circumference through an entire height of the antenna is larger than one operating wavelength of a GPS signal, resulting in a conical mode helix antenna configured to receive GPS signals including side-lobe signals and main-beam signals, the conical mode helix antenna configured to operate in a conical mode, the conical mode helix antenna provides a higher gain in the side-lobe signals of the GPS signals than in the main-beam signals of the GPS signals or the conical mode helix antenna, such that when the GPS-at-Geo system is in GEO orbit and outside of a Nadir direction of the GPS sender, the conical mode helix antenna provides a higher gain in the side-lobe signals of the GPS signals than at Nadir; a GPS receiver having an input and an output, the input of the GPS receiver configured to receive the GPS signals from the conical mode receive antenna, the GPS receiver configured to track the GPS signals and to provide navigation data for a GEO spacecraft; and a processor having an input and an output, the input of the processor configured to receive the navigation data, the processor configured to process the navigation data for the GEO spacecraft.
A wear size adjustment mechanism comprising: a winding device fixed on a garment cloth; an elongated member configured to be wound by the winding device; a first retainer fixed on the garment cloth on one side of the winding device and at a distance from the winding device, the first retainer retaining the elongated member such that the elongated member extending from the winding device is hooked on the first retainer, so as to define a first contraction region of the garment cloth to be pulled from the one side toward the winding device by a pulling action of the elongated member wound by the winding device; and a second retainer fixed on the garment cloth on the other side of the winding device and at a distance from the winding device, the second retainer retaining the elongated member hooked on the first retainer and extending from the first contraction region to the other side, so as to define a second contraction region of the garment cloth to be pulled from the other side toward the winding device by a pulling action of the elongated member wound by the winding device, wherein in the second contraction region, the elongated member does not extend between the second retainer and the winding device. a winding device fixed on a garment cloth; an elongated member configured to be wound by the winding device; a first retainer fixed on the garment cloth on one side of the winding device and at a distance from the winding device, the first retainer retaining the elongated member such that the elongated member extending from the winding device is hooked on the first retainer, so as to define a first contraction region of the garment cloth to be pulled from the one side toward the winding device by a pulling action of the elongated member wound by the winding device; and a second retainer fixed on the garment cloth on the other side of the winding device and at a distance from the winding device, the second retainer retaining the elongated member hooked on the first retainer and extending from the first contraction region to the other side, so as to define a second contraction region of the garment cloth to be pulled from the other side toward the winding device by a pulling action of the elongated member wound by the winding device, wherein in the second contraction region, the elongated member does not extend between the second retainer and the winding device.
A method of making a magnetically loaded composite tape including the steps of feeding a thermoplastic resin impregnated fibre tow to a heating station, feeding an anisotropic magnetically loaded pre-impregnated tape to said heating station, applying heat at said heating station to bond the tow and the tape so as to produce the magnetically loaded composite tape, said heating station including a rotatably driven mandrel which is arranged to be heated, and a compaction roller associated with the mandrel, said tow and tape being fed to pass between the compaction roller and the mandrel, characterised in that the mandrel has a magnetic field (41,42) embedded therein to provide the anisotropic magnetic loaded pre-impregnated tape with a desired magnetic configuration.
Method for the generation of a monoclonal plant cell line from a heterogeneous population of plant cells, comprising the following steps: (a) provision of a heterogeneous population of plant cells; (b) preparation of protoplasts from said heterogeneous population of plant cells and initiating cell wall regeneration; (c) provision of a cell deposition device containing feeder cell material in a liquid medium; (d) separation of single protoplasts by subjecting the preparation of protoplasts to FACS; (e) sorting of a single protoplast into the liquid medium of said cell deposition device containing feeder cell material; (f) regeneration of a separated single protoplast until the formation of a microcolony by co-cultivation in the presence of said feeder cell material; (g) removal of the microcolony from the feeder cell material and cultivation of the microcolony until the formation of a monoclonal plant cell line; wherein the protoplasts as prepared in step (b) are transformed and capable of (i) producing a fluorescent marker protein or polypeptide and/or (ii) surviving in presence of a selection agent. (a) provision of a heterogeneous population of plant cells; (b) preparation of protoplasts from said heterogeneous population of plant cells and initiating cell wall regeneration; (c) provision of a cell deposition device containing feeder cell material in a liquid medium; (d) separation of single protoplasts by subjecting the preparation of protoplasts to FACS; (e) sorting of a single protoplast into the liquid medium of said cell deposition device containing feeder cell material; (f) regeneration of a separated single protoplast until the formation of a microcolony by co-cultivation in the presence of said feeder cell material; (g) removal of the microcolony from the feeder cell material and cultivation of the microcolony until the formation of a monoclonal plant cell line;
A charging method, applied to a network architecture in which network control and data flow forwarding are separated, wherein the method comprises: executing, by a control plane CP entity, a charging rule installed or activated by a policy control and charging rules function entity; generating, by the CP, a user plane UP entity reporting policy based on the charging rule; requesting, by the CP, a required quota from an online charging system based on the charging rule; receiving, by the CP, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering, by the CP, the UP reporting policy and the UP quota information to the UP, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information. executing, by a control plane CP entity, a charging rule installed or activated by a policy control and charging rules function entity; generating, by the CP, a user plane UP entity reporting policy based on the charging rule; requesting, by the CP, a required quota from an online charging system based on the charging rule; receiving, by the CP, a quota delivered by the online charging system, and generating UP quota information based on the quota; and delivering, by the CP, the UP reporting policy and the UP quota information to the UP, wherein the UP reporting policy includes a parameter that indicates an association relationship between the UP reporting policy and the UP quota information.
An apparatus for use in the treatment of compressed gas, the apparatus comprising:- a housing having at least one inlet for allowing a stream of compressed gas into the housing and at least one outlet for allowing said stream of gas to exit said housing; at least one drain for collecting and exhausting at least one liquid component contained within said compressed gas; at least one adsorbent material located in said housing between said inlet and said outlet for absorbing at least one component of said stream of compressed gas; and at least one insert, the insert located within said housing between said inlet and said adsorbent material, the insert comprising:- a baffle for interrupting the flow of a stream of compressed air passing from an inlet in the housing of the apparatus for the treatment of compressed gas and causing the stream of compressed gas to change direction; and a plurality of supports extending from said baffle to adjacent an internal surface of the housing of the apparatus, at least one support including a channel to allow liquid deposited in said baffle from said stream of gas to flow towards said internal surface, wherein said baffle is concave on a surface facing the inlet of the apparatus.
A method of determining coronary heart disease risk for a patient, comprising: electronically obtaining a composite proton NMR spectrum of an in vitro blood, plasma or serum patient biosample; electronically evaluating a composite NMR signal in a defined peak region of the composite proton NMR spectrum to determine a level of GlycA, wherein the composite NMR signal is deconvolved into a discrete GlycA NMR signal using a defined deconvolution model with at least (i) high-density lipoprotein components, (ii) low-density lipoprotein components, (iii) VLDL (very-low-density lipoprotein)/chylomicron components and (iv) a defined protein signal component, and (v) a plurality of curve fitting functions associated with at least a GlycA peak region; and electronically calculating a patient's risk of CHD based, at least in part, on an electronically calculated concentration of total high density lipoprotein particle (HDL-P) and total low density lipoprotein particle (LDL-P) measurements from NMR spectra of the biosample, and on a correlation of the level of GlycA relative to a reference range of GlycA values with correlated CHD risk; wherein GlycA is an NMR biomarker derived from a measure of composite NMR signals from carbohydrate portions of acute-phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the defined peak region is associated with GlycA and extends from 1.845 ppm to 2.080 ppm at 47°C ±0.2°C. electronically obtaining a composite proton NMR spectrum of an in vitro blood, plasma or serum patient biosample; electronically evaluating a composite NMR signal in a defined peak region of the composite proton NMR spectrum to determine a level of GlycA, wherein the composite NMR signal is deconvolved into a discrete GlycA NMR signal using a defined deconvolution model with at least (i) high-density lipoprotein components, (ii) low-density lipoprotein components, (iii) VLDL (very-low-density lipoprotein)/chylomicron components and (iv) a defined protein signal component, and (v) a plurality of curve fitting functions associated with at least a GlycA peak region; and electronically calculating a patient's risk of CHD based, at least in part, on an electronically calculated concentration of total high density lipoprotein particle (HDL-P) and total low density lipoprotein particle (LDL-P) measurements from NMR spectra of the biosample, and on a correlation of the level of GlycA relative to a reference range of GlycA values with correlated CHD risk; wherein GlycA is an NMR biomarker derived from a measure of composite NMR signals from carbohydrate portions of acute-phase reactant glycoproteins containing N-acetylglucosamine and/or N-acetylgalactosamine moieties, and wherein the defined peak region is associated with GlycA and extends from 1.845 ppm to 2.080 ppm at 47°C ±0.2°C.
A blister pack in the form of an elongate strip which is sufficiently flexible to enable it to be wound into a roll for insertion into an inhalation device comprising a plurality of spaced blister cavities which receive and store an individual dose of powdered medicament for inhalation by a user, wherein the pack includes a base in which the blister cavities are formed and a substantially planar lid portion sealing the blister cavities, the base and the lid portion each comprising a laminate, the base laminate including a foil layer which is impermeable to moisture and gases, an outer polymer layer and an inner polymer layer on the opposite side of the foil layer to the outer polymer layer, characterised by a region of weakness formed by substantially removing a portion of the outer polymer layer from the base laminate, or by thinning a portion of said outer polymer layer of the base laminate, between each blister cavity, or a number of blister cavities, without damaging the foil layer of said base laminate.
An aircraft drive shaft system comprising: a generator shaft extending along a longitudinal axis with a longitudinal bore defined through the generator shaft; a thru shaft extending through the longitudinal bore of the generator shaft, the thru shaft having: a front coupler mount at a first end of the thru shaft operative to receive torque input; and a rear coupler mount at a second end of the thru shaft opposite the first end, wherein the generator shaft includes a rear coupler mount at a second end of the generator shaft that is coupled to the rear coupler mount of the thru shaft operative to transmit torque from the front coupler mount of the thru shaft, through the thru shaft, and into the generator shaft; and a coupling, wherein the rear coupler mount of the thru shaft is fastened directly to the coupling, and wherein the rear coupler mount of the generator shaft is fastened directly to the coupling, characterised in that: each of the front coupler mount of the thru shaft and the rear coupler mount (112, 116) of each of the thru shaft and the generator shaft has n vertices, wherein each vertex includes a bore operative to receive a fastener. a generator shaft extending along a longitudinal axis with a longitudinal bore defined through the generator shaft; a thru shaft extending through the longitudinal bore of the generator shaft, the thru shaft having: a front coupler mount at a first end of the thru shaft operative to receive torque input; and a rear coupler mount at a second end of the thru shaft opposite the first end, wherein the generator shaft includes a rear coupler mount at a second end of the generator shaft that is coupled to the rear coupler mount of the thru shaft operative to transmit torque from the front coupler mount of the thru shaft, through the thru shaft, and into the generator shaft; and a front coupler mount at a first end of the thru shaft operative to receive torque input; and a rear coupler mount at a second end of the thru shaft opposite the first end, wherein the generator shaft includes a rear coupler mount at a second end of the generator shaft that is coupled to the rear coupler mount of the thru shaft operative to transmit torque from the front coupler mount of the thru shaft, through the thru shaft, and into the generator shaft; and a coupling, wherein the rear coupler mount of the thru shaft is fastened directly to the coupling, and wherein the rear coupler mount of the generator shaft is fastened directly to the coupling, each of the front coupler mount of the thru shaft and the rear coupler mount (112, 116) of each of the thru shaft and the generator shaft has n vertices, wherein each vertex includes a bore operative to receive a fastener.
A spreading device for spreading granular material such as salt, slurry, sand, grit, aggregate and/or powdery materials, comprising a disc with a central bore adapted to rotate around an axel/shaft placed in said bore, said disc supporting a number of wings, characterised in that the spreading device comprises flexible means placed between an inner disc part and disc parts extending radially in the periphery, said flexible means allowing a deflection of the disc parts 10, whereby the wings being related to said disc parts are moved in a direction up or down depending on whether the rotation speed is decreased or increased.
An in vitro method for determining whether a subject has active tuberculosis, the method comprising determining the level of a panel of markers, wherein a) the panel is three markers which include SELL, PEPD and TNXB, and the subject is HIV negative (HIV-), or b) the panel is three markers which include SELL, PEPD and COMP, and the subject is HIV negative (HIV-), in a fluid sample(s) from the subject; and comparing the level of the panel of markers in the subject sample(s) with a level of the panel of markers in a control sample(s), wherein the control level of the panel of markers is the level of the panel of markers in a fluid sample that is the same type of fluid sample as the subject fluid sample and is the level in a subject that has latent TB; and/or the level in a subject that has an other respiratory disease; wherein a difference in the level of the panel of markers in the subject sample(s) as compared to the level of the panel of markers in the control sample(s) indicates that the subject has active TB, wherein the difference in the level is an increased level of SELL in the subject sample(s) relative to the control level of the corresponding marker, and/or a decreased level of PEPD, TNXB and COMP in the subject sample(s) relative to the control level of the corresponding marker, thereby determining whether the subject suspected of having active TB has active TB. a) the panel is three markers which include SELL, PEPD and TNXB, and the subject is HIV negative (HIV-), or b) the panel is three markers which include SELL, PEPD and COMP, and the subject is HIV negative (HIV-),