mhurhangee/ep-ind-claims huggingface dataset:
A non-aqueous electrolyte solution for a lithium secondary battery comprising: an ionizable lithium salt; an organic solvent; and 1.0 wt% to 4.5 wt%, based on the total weight of the non-aqueous electrolyte solution, of a mixed additive which includes vinylene carbonate, 1,3-propylene sulfate, and 1,3-propane sultone in a weight ratio of 1:0.5 to 1:0.2 to 1, wherein the organic solvent comprises at least one organic solvent selected from the group consisting of at least one cyclic carbonate-based organic solvent selected from the group consisting of ethylene carbonate, 1,2-butylene carbonate, 2,3-butylene carbonate, 1,2-pentylene carbonate, 2,3-pentylene carbonate, and fluoroethylene carbonate; and at least one linear carbonate-based organic solvent selected from the group consisting of dimethyl carbonate, diethyl carbonate, dipropyl carbonate, ethylmethyl carbonate, methylpropyl carbonate, and ethylpropyl carbonate; the organic solvent not including propylene carbonate. an ionizable lithium salt; an organic solvent; and 1.0 wt% to 4.5 wt%, based on the total weight of the non-aqueous electrolyte solution, of a mixed additive which includes vinylene carbonate, 1,3-propylene sulfate, and 1,3-propane sultone in a weight ratio of 1:0.5 to 1:0.2 to 1, wherein the organic solvent comprises at least one organic solvent selected from the group consisting of at least one cyclic carbonate-based organic solvent selected from the group consisting of ethylene carbonate, 1,2-butylene carbonate, 2,3-butylene carbonate, 1,2-pentylene carbonate, 2,3-pentylene carbonate, and fluoroethylene carbonate; and at least one linear carbonate-based organic solvent selected from the group consisting of dimethyl carbonate, diethyl carbonate, dipropyl carbonate, ethylmethyl carbonate, methylpropyl carbonate, and ethylpropyl carbonate; the organic solvent not including propylene carbonate.
A rebound rubber suitable to be interposed between a stop ring holder which retains one end of a rebound spring in a rebound spring mechanism of a hydraulic shock absorber and a rebound sheet which is fixed to a piston rod, the rebound rubber comprising: a structure which elastically deforms so that a rubber inner diameter portion is inflected and a rubber outer diameter portion protrudes like mountains toward an outer side in a diametrical direction at the exposing time to a compressive load in an axial direction, by arranging a rubber pressure receiving surface in an inner side in the diametrical direction in relation to a center line in the diametrical direction of a rubber volume in a half-cut cross sectional shape of the rubber, wherein the annular pressure receiving surface is provided at each of positions which are closer to the inner side in the diametrical direction than the center line, wherein an inclined surface having such a direction that a rubber axial width is made smaller from said rubber pressure receiving surface to a rubber outer diameter surface is provided in each of both end surfaces in an axial direction of said rubber, and wherein an axial width of the outer diameter surface is set to be smaller than an axial width of the rubber inner diameter portion, and characterized in that a diametrical width of the pressure receiving surface is set to be smaller than a diametrical width of the rubber inner diameter portion, and in that a diametrical width of the inclined surface is set to be larger than a diametrical width of the rubber outer diameter portion. a structure which elastically deforms so that a rubber inner diameter portion is inflected and a rubber outer diameter portion protrudes like mountains toward an outer side in a diametrical direction at the exposing time to a compressive load in an axial direction, by arranging a rubber pressure receiving surface in an inner side in the diametrical direction in relation to a center line in the diametrical direction of a rubber volume in a half-cut cross sectional shape of the rubber, wherein the annular pressure receiving surface is provided at each of positions which are closer to the inner side in the diametrical direction than the center line, wherein an inclined surface having such a direction that a rubber axial width is made smaller from said rubber pressure receiving surface to a rubber outer diameter surface is provided in each of both end surfaces in an axial direction of said rubber, and wherein an axial width of the outer diameter surface is set to be smaller than an axial width of the rubber inner diameter portion, and characterized in that a diametrical width of the pressure receiving surface is set to be smaller than a diametrical width of the rubber inner diameter portion, and in that a diametrical width of the inclined surface is set to be larger than a diametrical width of the rubber outer diameter portion.
A device for filling a thin-walled transport container made of flexible material with notes of value, comprising a supply unit for supplying the notes of value, a stacking unit for stacking the notes of value, a receiving unit for receiving the thin-walled transport container, a stuffing unit for transporting the stacked notes of value into the transport container in several successive filling steps, and comprising a closing unit for closing the thin-walled transport container, characterized in that the receiving unit comprises a contact sensor which, upon contact with the bottom of the transport container, is configured to generate a signal, that the closing unit is configured to close the transport container dependent on this signal, that the contact sensor comprises a rod which is rotatably mounted about its longitudinal axis, wherein the rod has a first rotary position in which the contact sensor generates no signal and wherein the rod has a second rotary position in which the contact sensor generates the signal.
A method of inspecting a material sample by X-ray diffraction wherein the sample is irradiated with a beam of X-ray radiation from a source with a range of photon energies, and wherein a plurality of energy-resolved spectra are obtained from radiation diffracted by the sample, characterised in that a plurality of energy-resolved spectra are obtained using different settings of source energy, whereby the source excitation voltage for at least one of said spectra is set below an absorption edge energy corresponding to a fluorescence peak present in another of said spectra such that said fluorescence peak is excluded.
A multi-segment turning light lamp for a vehicle, comprising: a lamp housing assembly including a substrate that has a plane surface, a lens disposed in front of said substrate and having a concave inner surface that faces said substrate, and a light divider arrangement disposed between said substrate and said lens, characterised by said light divider arrangement including a plurality of partitions that are angularly arranged with respect to and that extend radially with respect to a center of curvature of said concave inner surface of said lens and that extend radially to said lens, said plurality of partitions, said substrate and said lens cooperating to define a plurality of light-exit channels (251,252,253); and a lighting assembly including a plurality of light-emitting elements (311,312,313) that are disposed on said plane surface of said substrate, each of said light-emitting elements (311,312,313) being disposed for emitting light through a respective one of said light-exit channels (251,252,253). a lamp housing assembly including a substrate that has a plane surface, a lens disposed in front of said substrate and having a concave inner surface that faces said substrate, and a light divider arrangement disposed between said substrate and said lens, characterised by said light divider arrangement including a plurality of partitions that are angularly arranged with respect to and that extend radially with respect to a center of curvature of said concave inner surface of said lens and that extend radially to said lens, said plurality of partitions, said substrate and said lens cooperating to define a plurality of light-exit channels (251,252,253); and a lighting assembly including a plurality of light-emitting elements (311,312,313) that are disposed on said plane surface of said substrate, each of said light-emitting elements (311,312,313) being disposed for emitting light through a respective one of said light-exit channels (251,252,253).
A sensor device configured to detect a rotation angle of a shaft with respect to a support, the shaft being supported so as to be rotatable relative to the support, the sensor device comprising: an external gear configured to rotate together with the shaft; a driven gear (66, 67) configured to rotate by meshing with the external gear; a rotation angle detection permanent magnet (68, 69) configured to rotate together with the driven gear (66, 67); a rotation angle detection magnetic sensor (621, 622) configured to detect a magnetic field of the rotation angle detection permanent magnet (68, 69); a circuit board assembly having the rotation angle detection magnetic sensor (621, 622) mounted on a printed circuit board; a tubular first housing member that houses the external gear; and a second housing member that supports the driven gear (66, 67), wherein the first housing member has a fitting hole open in a radial direction perpendicular to an axial direction parallel to a rotation axis of the shaft, and the second housing member has a flange portion that abuts against an open end face of the fitting hole, and a part of the driven gear (66, 67) that protrudes from the flange portion is inserted into the first housing member and meshed with the external gear, characterized in that the second housing member houses the circuit board assembly. an external gear configured to rotate together with the shaft; a driven gear (66, 67) configured to rotate by meshing with the external gear; a rotation angle detection permanent magnet (68, 69) configured to rotate together with the driven gear (66, 67); a rotation angle detection magnetic sensor (621, 622) configured to detect a magnetic field of the rotation angle detection permanent magnet (68, 69); a circuit board assembly having the rotation angle detection magnetic sensor (621, 622) mounted on a printed circuit board; a tubular first housing member that houses the external gear; and a second housing member that supports the driven gear (66, 67), wherein the first housing member has a fitting hole open in a radial direction perpendicular to an axial direction parallel to a rotation axis of the shaft, and the second housing member has a flange portion that abuts against an open end face of the fitting hole, and a part of the driven gear (66, 67) that protrudes from the flange portion is inserted into the first housing member and meshed with the external gear, characterized in that the second housing member houses the circuit board assembly.
A system for analysing a lumen wall of a body lumen comprising: a probe having a proximal end, a distal end, and a support structure, the support structure being radially expandable within the body lumen, and a plurality of electrodes distributed circumferentially about the support structure to define an array of electrodes disposed near the distal end for circumferentially engaging the lumen wall; a variable frequency power source coupled to the array of electrodes such that, when the electrode array engages the lumen wall, an electrical circuit comprising the power source, selected electrodes of the array, and engaged lumen wall can be defined; and a processor coupled with the variable frequency power source, the processor comprising computer-readable media embodying software instructions and one or more programmable processor units adapted to run said instructions, said processor thereby being configured to characterize an eccentric target material of the lumen wall by monitoring a characteristic of the electrical circuit as a frequency supplied by the variable frequency power source is varied between differing frequencies, wherein the processor is configured to characterize the target material using a tissue signature profile curve, within a frequency range, of impedance magnitude and phase angles of the circuit. a probe having a proximal end, a distal end, and a support structure, the support structure being radially expandable within the body lumen, and a plurality of electrodes distributed circumferentially about the support structure to define an array of electrodes disposed near the distal end for circumferentially engaging the lumen wall; a variable frequency power source coupled to the array of electrodes such that, when the electrode array engages the lumen wall, an electrical circuit comprising the power source, selected electrodes of the array, and engaged lumen wall can be defined; and a processor coupled with the variable frequency power source, the processor comprising computer-readable media embodying software instructions and one or more programmable processor units adapted to run said instructions, said processor thereby being configured to characterize an eccentric target material of the lumen wall by monitoring a characteristic of the electrical circuit as a frequency supplied by the variable frequency power source is varied between differing frequencies, wherein the processor is configured to characterize the target material using a tissue signature profile curve, within a frequency range, of impedance magnitude and phase angles of the circuit.
A supplemental device comprising: a connector configured to attach the supplemental device to an injection device in use; a sensor configured to generate sensor output dependent on an intensity of light on the sensor and having a field of view directed at a surface area of the injection device in use, the surface area being external to the supplemental device; a plurality of light sources configured to generate illumination which in use can be directed out of the supplemental device onto the surface area, wherein each light source of the plurality of light sources is configured to emit a different wavelength; a shield configured to limit the field of view of the sensor such that the field of view is entirely directed at the surface area in use; characterized in that the supplemental device further comprises a memory storing a calibrated exposure time for each light source of the plurality of light sources, wherein the supplemental device is calibrated such that if the surface area is a neutral colour then respective signals generated by the sensor, in response to detecting light of the different wavelengths, are substantially similar and a processor configured to: for each light source of the plurality of light sources, illuminated the surface area with light for the respective calibrated exposure time; use the sensor output generated when illumination from the plurality of light sources is reflected from the surface area to determine a property of the injection device. a connector configured to attach the supplemental device to an injection device in use; a sensor configured to generate sensor output dependent on an intensity of light on the sensor and having a field of view directed at a surface area of the injection device in use, the surface area being external to the supplemental device; a plurality of light sources configured to generate illumination which in use can be directed out of the supplemental device onto the surface area, wherein each light source of the plurality of light sources is configured to emit a different wavelength; a shield configured to limit the field of view of the sensor such that the field of view is entirely directed at the surface area in use; characterized in that the supplemental device further comprises a memory storing a calibrated exposure time for each light source of the plurality of light sources, wherein the supplemental device is calibrated such that if the surface area is a neutral colour then respective signals generated by the sensor, in response to detecting light of the different wavelengths, are substantially similar and a processor configured to: for each light source of the plurality of light sources, illuminated the surface area with light for the respective calibrated exposure time; use the sensor output generated when illumination from the plurality of light sources is reflected from the surface area to determine a property of the injection device.
Use of a high-density paper substrate (10a; 10b) made from cellulose fibres, as a gas-barrier material in a laminated packaging material for packaging of liquid, semi-liquid or viscous food products or water, wherein the high-density paper substrate has a grammage from 30 to 75 g/m 2, as measured according to ISO 536:2012, a density above 1000 kg/m 3, as measured according to ISO 534:2011, and is impregnated, at a top-side surface (12a; 12b) of the paper, with an impregnating composition comprising an impregnating polymer selected from the group consisting of polyvinyl alcohol, PVOH, ethylene vinyl alcohol, EVOH, starch, starch derivatives, carboxymethyl cellulose, nanocrystalline cellulose, NCC, and blends of two or more thereof, wherein the amount of impregnated polymer is from 0.3 to 4.0 g/m 2, such as from 0.5 to 3.0 g/m 2, dry weight.
A compound, which is {1-{1-[3-Fluoro-2-(trifluoromethyl)isonicotinoyl]piperidin-4-yl{-3-[4-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1H-pyrazol-1-yl]azetidin-3-yl{acetonitrile, or a pharmaceutically acceptable salt thereof, for use in treating a disease selected from allograft rejection and graft versus host disease.
A system for transmitting data for intra-vehicle communications, the system comprising: a processor (112, 132) configured to generate data packets of a message according to a first protocol, the processor (112, 132) configured to analyze the message according to a second protocol and determine if the message provides a correct checksum according to the second protocol, the processor being configured to alter one of the data packets constituting the message to be transmitted if the message provides the correct checksum wherein the processor (112, 132) is configured to alter the least significant bit of the data packet; and a transmitter (116, 136) being configured to communicate with the processor, the transmitter (116, 136) being configured to transmit the message according to the first protocol. a processor (112, 132) configured to generate data packets of a message according to a first protocol, the processor (112, 132) configured to analyze the message according to a second protocol and determine if the message provides a correct checksum according to the second protocol, the processor being configured to alter one of the data packets constituting the message to be transmitted if the message provides the correct checksum wherein the processor (112, 132) is configured to alter the least significant bit of the data packet; and a transmitter (116, 136) being configured to communicate with the processor, the transmitter (116, 136) being configured to transmit the message according to the first protocol.
A module for a braking system, comprising: a movable housing configured to transfer a braking force from an input shaft to an output shaft; a first movable member slidably received within the housing and connected to the output shaft; a second movable member slidably received within the housing; a first resilient member biased between the first movable member and the second movable member, such that a force applied to the second movable member is applied to the first movable member via the first resilient member; and a second resilient member biased between the second movable member and the housing, such that a force applied to the housing is applied to the second movable member via the second resilient member; wherein the first resilient member is configured to yield or compress upon application of a first, relatively low braking force to the input shaft, and the second resilient member is configured to yield or compress after the first resilient member and upon application of a second, relatively high braking force to the input shaft, wherein the relatively low braking force is less than the relatively high braking force. a movable housing configured to transfer a braking force from an input shaft to an output shaft; a first movable member slidably received within the housing and connected to the output shaft; a second movable member slidably received within the housing; a first resilient member biased between the first movable member and the second movable member, such that a force applied to the second movable member is applied to the first movable member via the first resilient member; and a second resilient member biased between the second movable member and the housing, such that a force applied to the housing is applied to the second movable member via the second resilient member; wherein the first resilient member is configured to yield or compress upon application of a first, relatively low braking force to the input shaft, and the second resilient member is configured to yield or compress after the first resilient member and upon application of a second, relatively high braking force to the input shaft, wherein the relatively low braking force is less than the relatively high braking force.
Method for coupling a jacket with a foundation pile, comprising; - mounting a first flange with the jacket, - contacting a second flange with the foundation pile such that the second flange is supported by the foundation pile, - mutually positioning the first flange and the second flange such that the jacket may be supported by the pile through the first flange and the second flange, - arranging an inflatable spacing member between the first flange and second flange such that the spacing member contacts both the first flange and second flange for supporting the jacket through the spacing member, - inflating the spacing member for increasing a spacing (s) between the first flange and second flange, and - providing a grout coupling between the pile and the jacket. - mounting a first flange with the jacket, - contacting a second flange with the foundation pile such that the second flange is supported by the foundation pile, - mutually positioning the first flange and the second flange such that the jacket may be supported by the pile through the first flange and the second flange, - arranging an inflatable spacing member between the first flange and second flange such that the spacing member contacts both the first flange and second flange for supporting the jacket through the spacing member, - inflating the spacing member for increasing a spacing (s) between the first flange and second flange, and - providing a grout coupling between the pile and the jacket.
A centrifugally cast composite metal product having an axis of rotational symmetry and an axially extending exterior surface and a mass of at least 5kg and comprising a ferrous metal matrix and 5-50 vol% solid particles of a refractory material throughout the ferrous metal matrix, the refractory particles being insoluble at a casting temperature, the refractory particles being carbides and/or borides and/or nitrides of one or more than one of the nine transition metals titanium, zirconium, hafnium, vanadium, niobium, tantalum, chromium, molybdenum and tungsten, where the particles are a chemical mixture, as opposed to a physical mixture, of the carbides and/or borides and/or nitrides of the transition metals, the refractory particles having a density that is within 20% of the density of the ferrous metal at its casting temperature, wherein a first concentration of refractory particles in an exterior surface layer of the product is in a range of 10-40 vol% of the total volume of the exterior surface layer, and wherein a second concentration of refractory particles in an interior layer of the product is in a range of 2-4.5 vol% of the total volume of the interior layer.