mhurhangee/ep-ind-claims huggingface dataset:
A site light comprising: a body; an arm coupled to the body and adjustable between an extended position, where the arm has a first arm length, and a retracted position, where the arm has a second arm length shorter than the first arm length; a power system; a light assembly coupled to the arm and movable with respect to the body; a cable extending between and in electrical communication with the light assembly and the power system, and wherein the cable is in operable communication with the arm and moves the arm between the extended configuration and the retracted configuration; and a drive assembly configured to drive the cable, the drive assembly including: a drive wheel mounted for rotation with respect to the body, characterized in that the drive assembly further includes: an idle wheel mounted for rotation with respect to the body, and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable. a body; an arm coupled to the body and adjustable between an extended position, where the arm has a first arm length, and a retracted position, where the arm has a second arm length shorter than the first arm length; a power system; a light assembly coupled to the arm and movable with respect to the body; a cable extending between and in electrical communication with the light assembly and the power system, and wherein the cable is in operable communication with the arm and moves the arm between the extended configuration and the retracted configuration; and a drive assembly configured to drive the cable, the drive assembly including: a drive wheel mounted for rotation with respect to the body, characterized in that the drive assembly further includes: an idle wheel mounted for rotation with respect to the body, and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable. an idle wheel mounted for rotation with respect to the body, and a biasing member configured to bias the idle wheel toward the drive wheel to provide a clamping force against the cable.
An article comprising: a body having a first side wall, a second side wall opposite to the first side wall, and a body dimension extending between the first side wall and the second side wall, the body further including a nickel-based superalloy having a microstructure that includes: a gamma phase matrix, and a gamma prime phase including a plurality of rafting-resistant gamma prime particles dispersed in the gamma phase matrix, wherein the plurality of the rafting-resistant gamma prime particles has an average particle perimeter of 3.0 microns to 15.0 microns and an average aspect ratio of 1.2 to 3.0, wherein the gamma prime phase is present in 55 volume percent, % v/v, to 75 volume percent, % v/v, of the superalloy, and wherein one or both of the measured value of the average particle perimeter and the measured value of the average aspect ratio of the plurality of the rafting-resistant gamma prime particles does not deviate by more than +/- 10% throughout the microstructure of the nickel-based superalloy; wherein the nickel-based superalloy includes from 4.0 weight percent to 7.0 weight percent aluminum (Al), from 5.0 weight percent to 10.0 weight percent chromium (Cr), from 6.0 weight percent to 10.0 weight percent cobalt (Co), from 0 weight percent to 1.5 weight percent hafnium (Hf), from 0 weight percent to 4.0 weight percent molybdenum (Mo), from 0 weight percent to 2.0 weight percent niobium (Nb), from 0 weight percent to 6.0 weight percent rhenium (Re), 4.0 weight percent to 10.0 weight percent tantalum (Ta), from 0 weight percent to 4.0 weight percent titanium (Ti), 4.0 weight percent to 8.0 weight percent tungsten, and the balance Ni and incidental impurities. a gamma phase matrix, and a gamma prime phase including a plurality of rafting-resistant gamma prime particles dispersed in the gamma phase matrix, wherein the plurality of the rafting-resistant gamma prime particles has an average particle perimeter of 3.0 microns to 15.0 microns and an average aspect ratio of 1.2 to 3.0, wherein the gamma prime phase is present in 55 volume percent, % v/v, to 75 volume percent, % v/v, of the superalloy, and wherein one or both of the measured value of the average particle perimeter and the measured value of the average aspect ratio of the plurality of the rafting-resistant gamma prime particles does not deviate by more than +/- 10% throughout the microstructure of the nickel-based superalloy; wherein the nickel-based superalloy includes from 4.0 weight percent to 7.0 weight percent aluminum (Al), from 5.0 weight percent to 10.0 weight percent chromium (Cr), from 6.0 weight percent to 10.0 weight percent cobalt (Co), from 0 weight percent to 1.5 weight percent hafnium (Hf), from 0 weight percent to 4.0 weight percent molybdenum (Mo), from 0 weight percent to 2.0 weight percent niobium (Nb), from 0 weight percent to 6.0 weight percent rhenium (Re), 4.0 weight percent to 10.0 weight percent tantalum (Ta), from 0 weight percent to 4.0 weight percent titanium (Ti), 4.0 weight percent to 8.0 weight percent tungsten, and the balance Ni and incidental impurities.
A light water nuclear reactor fuel pellet composition having an increased U-235 content, the composition comprising: triuranium disilicide in a range from 50% to 100% by weight of the composition, the triuranium disilicide having a uranium component comprising from about 0.7% to about 20% by weight uranium-235 of total weight of said uranium component, wherein, the uranium-235 content in said composition is greater as compared to content of uranium-235 in a nuclear fuel composition composed only of uranium dioxide, wherein both compositions have the same enrichment level of U-235. triuranium disilicide in a range from 50% to 100% by weight of the composition, the triuranium disilicide having a uranium component comprising from about 0.7% to about 20% by weight uranium-235 of total weight of said uranium component, wherein, the uranium-235 content in said composition is greater as compared to content of uranium-235 in a nuclear fuel composition composed only of uranium dioxide, wherein both compositions have the same enrichment level of U-235.
A method at a mobile device, the method comprising: receiving one or more data symbols; determining reduced symbols for each of the data symbols, the reduced symbols corresponding to each of at least two orthogonal components (301,302) of the data symbols; storing, prior to modulation demapping to determine soft decisions from the reduced symbols, the reduced symbols in a symbol buffer; while storing the reduced symbols in the symbol buffer and prior to performing the modulation demapping, estimating Quadrature Amplitude Modulation, QAM, amplitudes of the one or more data symbols; after the storing, de-interleaving the reduced symbols to produce de-interleaved reduced symbols; after symbol de-interleaving, modulation demapping the de-interleaved symbols, based on the estimated QAM amplitudes, to produce soft decisions; performing constellation de-arrangement of the soft decisions; and based on the performing constellation de-arrangement, performing rate de-matching and Hybrid Automatic Repeat Request, HARQ, combining of the soft decisions; wherein the data symbols are quadrature amplitude modulated QAM symbols, and the reduced symbols are pulse amplitude modulated Pulse Amplitude Modulation, PAM, symbols, and the at least two orthogonal components (301,302) of the data symbols are in-phase and quadrature components of QAM symbols. receiving one or more data symbols; determining reduced symbols for each of the data symbols, the reduced symbols corresponding to each of at least two orthogonal components (301,302) of the data symbols; storing, prior to modulation demapping to determine soft decisions from the reduced symbols, the reduced symbols in a symbol buffer; while storing the reduced symbols in the symbol buffer and prior to performing the modulation demapping, estimating Quadrature Amplitude Modulation, QAM, amplitudes of the one or more data symbols; after the storing, de-interleaving the reduced symbols to produce de-interleaved reduced symbols; after symbol de-interleaving, modulation demapping the de-interleaved symbols, based on the estimated QAM amplitudes, to produce soft decisions; performing constellation de-arrangement of the soft decisions; and based on the performing constellation de-arrangement, performing rate de-matching and Hybrid Automatic Repeat Request, HARQ, combining of the soft decisions; wherein the data symbols are quadrature amplitude modulated QAM symbols, and the reduced symbols are pulse amplitude modulated Pulse Amplitude Modulation, PAM, symbols, and the at least two orthogonal components (301,302) of the data symbols are in-phase and quadrature components of QAM symbols.
Biomaterial having a multi-dimensional structure and comprising differentiated MSCs tissue and demineralised bone matrix, wherein said demineralised bone matrix is dispersed within the differentiated MSCs tissue, and wherein said differentiated MSCs are adipose tissue-derived stem cells.
A carriage (12, 14, 16) for a rail vehicle extending along a longitudinal direction (X-X') parallel to the direction of travel of the vehicle, and comprising: - a vehicle body defining at least one compartment to be ventilated; - a roof cowling disposed on the body, the roof cowling comprising two side walls and a top wall disposed between the two side walls; and - a ventilation system for said compartment defining: + an air flow inlet duct to the compartment, between at least one air inlet formed in one of the side walls and the compartment, and + an outlet duct extending between the compartment and an air outlet provided in the top wall, the air inlet and the air outlet being spaced apart in the longitudinal direction (X-X'). - a vehicle body defining at least one compartment to be ventilated; - a roof cowling disposed on the body, the roof cowling comprising two side walls and a top wall disposed between the two side walls; and - a ventilation system for said compartment defining: + an air flow inlet duct to the compartment, between at least one air inlet formed in one of the side walls and the compartment, and + an outlet duct extending between the compartment and an air outlet provided in the top wall, + an air flow inlet duct to the compartment, between at least one air inlet formed in one of the side walls and the compartment, and + an outlet duct extending between the compartment and an air outlet provided in the top wall,
X-ray detection device, comprising: - a semiconducting X-ray detecting member provided with first and second electrode contacts (22, 24); - first and second electric wires (16, 17) connected to the first and second electrode contacts (22, 24), respectively; wherein the detecting member has a flat shape with two main, substantially parallel surfaces, wherein the first and second electrode contacts (22, 24) are positioned on one of said main surfaces, wherein the device has an elongated shape, wherein the detecting member is arranged such that the main surfaces face in a longitudinal direction of the device, wherein the device comprises a dose adjusting element (10, 10a, 10b) comprising tissue equivalent material, wherein the dose adjusting element (10, 10a, 10b) is arranged such as to surround the detecting member with tissue equivalent material characterized in that the first electrode contact is positioned on the same side of the detecting member as the second electrode contact, and further characterized in that the device is provided with a density variation in a region close to the detecting member, wherein the density variation is achieved by providing a cavity that surrounds the detecting member, wherein the cavity is formed by cut-out in the dose adjusting element (10, 10a, 10b), wherein the cavity has an annular shape and surrounds the detecting member in a radial direction of the device. - a semiconducting X-ray detecting member provided with first and second electrode contacts (22, 24); - first and second electric wires (16, 17) connected to the first and second electrode contacts (22, 24), respectively;
An antiviral composition for use in a method for preventing or treating a viral disease by inhibiting viruses through viral replication inhibition, wherein the method comprises administering the antiviral composition to a subject having a viral disease, wherein the composition comprises at least one selected from the group consisting of: a peptide of SEQ ID NO:1, a peptide having at least 80% sequence homology with the amino acid sequence of SEQ ID NO:1, and a fragment of said peptide, as an active ingredient.
A material management method carried out by a material management apparatus, applied to a battery production line, wherein the battery production line is provided with a code scanning system, the production line comprises a plurality of stations, the code scanning system is configured with a blocking device corresponding to each station and a code scanning device bound to each station, and the method comprises: controlling, after a plurality of battery cells placed on the plurality of stations reach designated code scanning positions, each blocking device to work in a first working state according to a predetermined sequence, thereby blocking identifications of the battery cells on the corresponding stations; acquiring code scanning results of the code scanning devices corresponding to the blocking devices for the identifications when each blocking device works in the first working state respectively; and determining, according to the code scanning results, whether a binding relationship between the code scanning devices and the stations is abnormal. controlling, after a plurality of battery cells placed on the plurality of stations reach designated code scanning positions, each blocking device to work in a first working state according to a predetermined sequence, thereby blocking identifications of the battery cells on the corresponding stations; acquiring code scanning results of the code scanning devices corresponding to the blocking devices for the identifications when each blocking device works in the first working state respectively; and determining, according to the code scanning results, whether a binding relationship between the code scanning devices and the stations is abnormal.
A method for generating a key identity identifier when a user equipment, UE, transfers, including the following steps: when a UE transfers from an evolved universal mobile telecommunications system. UMTS, terrestrial radio access network, EUTRAN, to a target system, a mobility management entity, MME, of the EUTRAN sending an identity identifier of an access security management entity key, K ASME, KSI ASME, to a serving general packet radio service, GPRS, support node, SGSN, of the target system (A1,B1), and both the SGSN and the UE mapping the KSI ASME into a key identity identifier of the target system; wherein mapping the KSI ASME into a key set identifier, KSI, when the target system is a UMTS terrestrial radio access network, UTRAN (A2,A3) and mapping the KSI ASME into a ciphering key sequence number, CKSN, when the target system is a GPRS/enhanced data rates for global evolution, EDGE, radio access network, GERAN (B2,B3) wherein, the MME of the EUTRAN sending KSI ASME, to the SGSN of the target system, comprises: the MME generating an integrity key, IK, and a ciphering key, CK, based on the K ASME and sending the KSI ASME together with the IK and the CK which are generated from the K ASME to the SGSN (A1,B1). when a UE transfers from an evolved universal mobile telecommunications system. UMTS, terrestrial radio access network, EUTRAN, to a target system, a mobility management entity, MME, of the EUTRAN sending an identity identifier of an access security management entity key, K ASME, KSI ASME, to a serving general packet radio service, GPRS, support node, SGSN, of the target system (A1,B1), and both the SGSN and the UE mapping the KSI ASME into a key identity identifier of the target system; wherein mapping the KSI ASME into a key set identifier, KSI, when the target system is a UMTS terrestrial radio access network, UTRAN (A2,A3) and mapping the KSI ASME into a ciphering key sequence number, CKSN, when the target system is a GPRS/enhanced data rates for global evolution, EDGE, radio access network, GERAN (B2,B3) wherein, the MME of the EUTRAN sending KSI ASME, to the SGSN of the target system, comprises: the MME generating an integrity key, IK, and a ciphering key, CK, based on the K ASME and sending the KSI ASME together with the IK and the CK which are generated from the K ASME to the SGSN (A1,B1). the MME generating an integrity key, IK, and a ciphering key, CK, based on the K ASME and sending the KSI ASME together with the IK and the CK which are generated from the K ASME to the SGSN (A1,B1).
A gas turbine power generation system in which a pressurizing unit, a rotation control unit, a diaphragm coupling, a radial bearing, a turbine, and a generator are disposed to line up sequentially on a same shaft, characterized in that the gas turbine power generation system comprises a thrust bearing provided between the turbine and the generator, wherein the turbine is configured such that a working medium flows from the diaphragm coupling side toward the rotation control unit side. a thrust bearing provided between the turbine and the generator, wherein the turbine is configured such that a working medium flows from the diaphragm coupling side toward the rotation control unit side.
A laser processing machine, in particular a laser cutting machine, having a laser processing head, in particular a laser cutting head, having a support grid which defines a support plane for supporting a workpiece to be processed, having at least one fluid supply device (21; 36; 51) and having at least one fluid discharge device (31; 61), wherein the fluid supply device (21; 36; 51) and the fluid discharge device (31; 61) are designed to generate a fluid flow below the support plane of the support grid for discharging, in particular, smoke and dust, characterized in that the at least one fluid supply device (21; 36; 51) is formed with at least one nozzle (23, 73, 83, 93, 98) and is arranged below the support plane and can be moved with the laser processing head, preferably parallel thereto in a direction of travel thereof, and further characterized by a nozzle cleaning device for cleaning the at least one nozzle (23, 73, 83, 93, 98).
An object recognition system comprising: a light source section that is configured to irradiate a subject with dot light having a predetermined pattern; an event detection sensor that is configured to receive the dot light having the predetermined pattern reflected by the subject and to detect, as an event, that a change in luminance of a pixel exceeds a predetermined threshold; and a signal processor that is configured to perform, in a case where a plurality of successive pixels in a pixel array section of the event detection sensor detects occurrence of an event in a certain period, processing of removing the event as noise, the plurality of successive pixels being equal to or greater than a predetermined number of pixels. a light source section that is configured to irradiate a subject with dot light having a predetermined pattern; an event detection sensor that is configured to receive the dot light having the predetermined pattern reflected by the subject and to detect, as an event, that a change in luminance of a pixel exceeds a predetermined threshold; and a signal processor that is configured to perform, in a case where a plurality of successive pixels in a pixel array section of the event detection sensor detects occurrence of an event in a certain period, processing of removing the event as noise, the plurality of successive pixels being equal to or greater than a predetermined number of pixels.
A medical apparatus, comprising: a radiation source for emitting radiation towards at least one eye of a patient; a mount element arranged to be worn by the patient for positioning the radiation source in a predetermined position relative to the at least one eye, wherein the mount element comprises a mask, goggles or a visor arranged to be attached to the patient's face or head, for positioning the radiation source in a predetermined position relative to the at least one eye of the patient; a sensor element arranged to provide a signal indicative of whether the apparatus is being worn by the patient; and at least one controller arranged to receive the signal from the sensor, and to determine whether the apparatus is being worn by the patient, and to determine and record duration data indicative of the duration for which the radiation source emits radiation whilst the apparatus is being worn by the patient. a radiation source for emitting radiation towards at least one eye of a patient; a mount element arranged to be worn by the patient for positioning the radiation source in a predetermined position relative to the at least one eye, wherein the mount element comprises a mask, goggles or a visor arranged to be attached to the patient's face or head, for positioning the radiation source in a predetermined position relative to the at least one eye of the patient; a sensor element arranged to provide a signal indicative of whether the apparatus is being worn by the patient; and at least one controller arranged to receive the signal from the sensor, and to determine whether the apparatus is being worn by the patient, and to determine and record duration data indicative of the duration for which the radiation source emits radiation whilst the apparatus is being worn by the patient.
An electrostatic capacitance fluid level sensor including a hermetic terminal having a metal base and two electrically conductive terminal pins inserted through the metal base to be hermetically insulated and fixed by an electrically insulating filler and two electrodes provided on the hermetic terminal for detection of fluid level by electrostatic capacitance, wherein the sensor further comprising: a detection unit including two electrodes and electrically insulating spacers fixing a positional relationship between the electrodes; and two connecting terminals (9, 29, 39A, 39B) configured to connect and fix the two electrodes to the two conductive terminal pins respectively, wherein at least one of the two connecting terminals (9, 29, 39) is deformable by a weaker force than a force causing the electrodes to deform. a detection unit including two electrodes and electrically insulating spacers fixing a positional relationship between the electrodes; and two connecting terminals (9, 29, 39A, 39B) configured to connect and fix the two electrodes to the two conductive terminal pins respectively, wherein at least one of the two connecting terminals (9, 29, 39) is deformable by a weaker force than a force causing the electrodes to deform.
A manufacturing method for a solar cell including a crystalline silicon substrate having a main surface in which a textured structure has been formed, the textured structure being formed in the main surface (10a, 10b) of the crystalline silicon substrate by etching the main surface of the crystalline silicon substrate using one etching solution, and then etching the main surface of the crystalline silicon substrate at a lower etching rate than the etching performed using the one etching solution by using another etching solution having a higher concentration of etching components than the one etching solution, wherein isotropic etching is performed on the main surface of the crystalline silicon substrate using the one etching solution, and anisotropic etching is performed on the main surface of the crystalline silicon substrate using the other etching solution, characterized in that alkaline etching solutions are used for both the one etching solution and the other etching solution.