mhurhangee/ep-ind-claims huggingface dataset:
A device for diagnosing an abnormality by measuring change in a muscle, comprising: a vibration unit configured to provide vibration to a body part of a user; a measuring unit configured to detect change in a muscle by measuring a change in elasticity of the body part according to the vibration; and a processing unit configured to calculate an abnormality of the body part based on the change in the elasticity of the body part, wherein the measuring unit includes an electromyography unit that is configured to measure an electromyograph signal of the body part, wherein the processing unit is configured to calculate the abnormality of the body part by using an anomaly detection algorithm that detects whether there is anomaly in a variable, wherein the measuring unit includes an accelerometer that detects reflex vibration generated in the body part in response to the vibration, characterized in that the anomaly detection algorithm used by the processing unit includes an isolation forest algorithm that detects anomaly by splitting anomaly data based on a tree, wherein if there is a sudden change in the frequency component of the reflex vibration measured by the accelerometer and of the frequency component of the EMG signal measured by the EMG, it is split as outlier. a vibration unit configured to provide vibration to a body part of a user; a measuring unit configured to detect change in a muscle by measuring a change in elasticity of the body part according to the vibration; and a processing unit configured to calculate an abnormality of the body part based on the change in the elasticity of the body part, wherein the measuring unit includes an electromyography unit that is configured to measure an electromyograph signal of the body part, wherein the processing unit is configured to calculate the abnormality of the body part by using an anomaly detection algorithm that detects whether there is anomaly in a variable, wherein the measuring unit includes an accelerometer that detects reflex vibration generated in the body part in response to the vibration, characterized in that the anomaly detection algorithm used by the processing unit includes an isolation forest algorithm that detects anomaly by splitting anomaly data based on a tree, wherein if there is a sudden change in the frequency component of the reflex vibration measured by the accelerometer and of the frequency component of the EMG signal measured by the EMG, it is split as outlier.
A mass spectrometer comprising a Gas Electron Multiplier ion detector, where said ion detector comprises a first gas electron multiplier stage and one or more counter electrodes arranged in a drift or input region of said ion detector and facing or opposed to said first gas electron multiplier stage, characterized by that said ion detector is arranged and adapted to detect ions having an energy of ≤ 200 eV.
Glazing comprising a transparent substrate coated with a stack of thin layers comprising n functional layer(s) reflecting infrared radiation and n+1 dielectric layers, with n≥1, each functional layer being surrounded by dielectric layers, characterised in that at least one dielectric layer above a functional layer comprises a layer consisting essentially of silicon oxide and in that the stack comprises a barrier layer which, as deposited, is based on zinc oxide above and in direct contact with any functional layer which has a silicon oxide layer in the dielectric layer directly above it.
An apparatus comprising a surface heater, the surface heater comprising: a heating substrate (10, 110) comprising an electrically insulating surface wherein the electrically insulating surface comprises a glass material; a heating element (30, 130) attached to the electrically insulating surface, the heating element (30, 130) comprising lanthanide oxide and a metal material; and a power supply unit (50, 150) to supply electricity to the heating element (30, 130), wherein the heating element (30, 130) is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder and a metal powder, characterised in that the heating element (30, 130) comprises 30 to 60% by weight of the lanthanide oxide and 40 to 70% by weight of the metal material, wherein the lanthanide oxide is a Lanthanum Cobalt oxide. a heating substrate (10, 110) comprising an electrically insulating surface wherein the electrically insulating surface comprises a glass material; a heating element (30, 130) attached to the electrically insulating surface, the heating element (30, 130) comprising lanthanide oxide and a metal material; and a power supply unit (50, 150) to supply electricity to the heating element (30, 130), wherein the heating element (30, 130) is attached to the electrically insulating surface by sintering a predetermined powder comprising a lanthanide oxide powder and a metal powder, characterised in that the heating element (30, 130) comprises 30 to 60% by weight of the lanthanide oxide and 40 to 70% by weight of the metal material, wherein the lanthanide oxide is a Lanthanum Cobalt oxide.
A process for the production of glycols comprising the step of: (a) contacting a carbon support with a catalyst precursor solution comprising at least one element from groups 7, 8, 9, 10 and 11 of the periodic table to form a metal impregnated carbon; (b) drying the metal impregnated carbon at a temperature of no greater than 400°C and placing in a reactor vessel; (c) sealing the reactor vessel; and (d) treating the metal impregnated carbon in the sealed reactor vessel in an atmosphere comprising hydrogen at a temperature of from 25 °C to 350 °C to form an activated catalyst composition; (e) whilst the catalyst composition remains inside the reactor vessel in an atmosphere comprising hydrogen, supplying to the reactor vessel a saccharide-containing feedstock, a retro-aldol catalyst composition, a solvent and further hydrogen. (a) contacting a carbon support with a catalyst precursor solution comprising at least one element from groups 7, 8, 9, 10 and 11 of the periodic table to form a metal impregnated carbon; (b) drying the metal impregnated carbon at a temperature of no greater than 400°C and placing in a reactor vessel; (c) sealing the reactor vessel; and (d) treating the metal impregnated carbon in the sealed reactor vessel in an atmosphere comprising hydrogen at a temperature of from 25 °C to 350 °C to form an activated catalyst composition; (e) whilst the catalyst composition remains inside the reactor vessel in an atmosphere comprising hydrogen, supplying to the reactor vessel a saccharide-containing feedstock, a retro-aldol catalyst composition, a solvent and further hydrogen.
A system for venting a solvent, the system comprising: an oven having an interior volume defining a heating zone, the interior volume for receiving at least one substrate coated with a coating material comprising a solvent; a vent coupled to the oven, the vent defining a passage between the interior volume and the environment external to the oven; a solvent sensor at least partially located in the interior volume and configured to measure an amount of evaporated solvent present in the interior volume; a fan in fluid communication with the passage and configured to remove at least a portion of the evaporated solvent from the interior volume, characterized in that the system further comprises a flow meter configured to determine an amount of material applied to the substrate and a controller configured to determine an amount of evaporated solvent present in the oven, wherein the controller is configured to determine a concentration of evaporated solvent present in the oven based on the amount of material applied to the substrate, the evaporation rate of the solvent, the surface area coated on the substrate, the solvent content of the applied material, and the volume of the oven, wherein the system is configured to shut down when the measured amount of evaporated solvent present in the interior volume is greater than or equal to a shutdown threshold. an oven having an interior volume defining a heating zone, the interior volume for receiving at least one substrate coated with a coating material comprising a solvent; a vent coupled to the oven, the vent defining a passage between the interior volume and the environment external to the oven; a solvent sensor at least partially located in the interior volume and configured to measure an amount of evaporated solvent present in the interior volume; a fan in fluid communication with the passage and configured to remove at least a portion of the evaporated solvent from the interior volume, characterized in that the system further comprises a flow meter configured to determine an amount of material applied to the substrate and a controller configured to determine an amount of evaporated solvent present in the oven, wherein the controller is configured to determine a concentration of evaporated solvent present in the oven based on the amount of material applied to the substrate, the evaporation rate of the solvent, the surface area coated on the substrate, the solvent content of the applied material, and the volume of the oven, wherein the system is configured to shut down when the measured amount of evaporated solvent present in the interior volume is greater than or equal to a shutdown threshold.
An accelerometer system comprising: a first electromagnetic coil; a first excitation ring comprising: a first housing; and a first cover removably attached to the first housing, wherein the first housing and the first cover define a first recess configured to house the first electromagnetic coil; a second electromagnetic coil; a second excitation ring comprising: a second housing; and a second cover removably attached to the second housing, wherein the second housing and the second cover define a second recess configured to house the second electromagnetic coil; and a proof mass assembly positioned between the first excitation ring and the second excitation ring, wherein the first electromagnetic coil is configured to generate a first magnetic flux that flows through the first excitation ring and maintains a proof mass of the proof mass assembly in a null position, and wherein the second electromagnetic coil is configured to generate a second magnetic flux that flows through the second excitation ring and maintains the proof mass in the null position. a first electromagnetic coil; a first excitation ring comprising: a first housing; and a first cover removably attached to the first housing, wherein the first housing and the first cover define a first recess configured to house the first electromagnetic coil; a first housing; and a first cover removably attached to the first housing, wherein the first housing and the first cover define a first recess configured to house the first electromagnetic coil; a second electromagnetic coil; a second excitation ring comprising: a second housing; and a second cover removably attached to the second housing, wherein the second housing and the second cover define a second recess configured to house the second electromagnetic coil; and a second housing; and a second cover removably attached to the second housing, wherein the second housing and the second cover define a second recess configured to house the second electromagnetic coil; and a proof mass assembly positioned between the first excitation ring and the second excitation ring, wherein the first electromagnetic coil is configured to generate a first magnetic flux that flows through the first excitation ring and maintains a proof mass of the proof mass assembly in a null position, and wherein the second electromagnetic coil is configured to generate a second magnetic flux that flows through the second excitation ring and maintains the proof mass in the null position.
A method for communications in a wireless communications system, the method comprising: receiving configuration signaling from a base station to enter a continuous communications mode; and processing bundles of transmission time interval, TTI, transmissions having transmission times that are mapped to periodic packet arrival times, wherein the bundled TTI transmissions are processed without acknowledgements to indicate the bundled TTI transmissions have been successfully received. receiving configuration signaling from a base station to enter a continuous communications mode; and processing bundles of transmission time interval, TTI, transmissions having transmission times that are mapped to periodic packet arrival times, wherein the bundled TTI transmissions are processed without acknowledgements to indicate the bundled TTI transmissions have been successfully received.
An eIMTA-enabled user equipment configured to: identify, based on a System Information Block 1, SIBi, message, a first uplink/downlink, UL/DL, configuration that indicates downlink subframes and subframes that include a downlink pilot time slot, DwPTS, in a radio frame; identify, based on a Physical Downlink Control Channel, PDCCH, or an enhanced PDCCH, ePDCCH, message, a second UL/DL configuration that indicates downlink subframes and subframes that include the DwPTS in the radio frame, wherein at least one subframe of the downlink subframes and the subframes that include the DwPTS indicated by the second UL/DL configuration is identified as an uplink subframe in the radio frame based on the first UL/DL configuration; increment a running discontinuous reception, DRX, timer on the indicated downlink subframes and subframes that include the DwPTS based on the first UL/DL configuration, and monitor the indicated downlink subframes and subframes that include the DwPTS based on the second UL/DL configuration. identify, based on a System Information Block 1, SIBi, message, a first uplink/downlink, UL/DL, configuration that indicates downlink subframes and subframes that include a downlink pilot time slot, DwPTS, in a radio frame; identify, based on a Physical Downlink Control Channel, PDCCH, or an enhanced PDCCH, ePDCCH, message, a second UL/DL configuration that indicates downlink subframes and subframes that include the DwPTS in the radio frame, wherein at least one subframe of the downlink subframes and the subframes that include the DwPTS indicated by the second UL/DL configuration is identified as an uplink subframe in the radio frame based on the first UL/DL configuration; increment a running discontinuous reception, DRX, timer on the indicated downlink subframes and subframes that include the DwPTS based on the first UL/DL configuration, and monitor the indicated downlink subframes and subframes that include the DwPTS based on the second UL/DL configuration.
A system for detecting one or more analyte species present in a gaseous or liquid medium, the system comprising: a laser that emits continuous wave laser light; a resonant optical cavity containing said medium and having at least two cavity mirrors (105, 106), one of which is a cavity coupling mirror; wherein the laser light is coupled to the cavity via the cavity coupling mirror; a first detector configured to measure an intensity of the laser light incident on the cavity coupling mirror and to generate a first signal representing the intensity of the laser light incident on the cavity coupling mirror; a second detector configured to measure an intensity of the laser light reflected by the cavity coupling mirror and to generate a second signal representing the intensity of the laser light reflected by the cavity coupling mirror; a third detector configured to measure an intensity of the intracavity optical power of light circulating in the cavity and to generate a third signal representing the intracavity optical power of light circulating in the cavity; and an intelligence module adapted to process the first, second and third signals to produce a normalized signal, wherein a difference between the first signal and the second signal is normalized on the third signal to produce the normalized signal that is a linear function of total cavity loss and that is not sensitive to laser-cavity coupling. a laser that emits continuous wave laser light; a resonant optical cavity containing said medium and having at least two cavity mirrors (105, 106), one of which is a cavity coupling mirror; wherein the laser light is coupled to the cavity via the cavity coupling mirror; a first detector configured to measure an intensity of the laser light incident on the cavity coupling mirror and to generate a first signal representing the intensity of the laser light incident on the cavity coupling mirror; a second detector configured to measure an intensity of the laser light reflected by the cavity coupling mirror and to generate a second signal representing the intensity of the laser light reflected by the cavity coupling mirror; a third detector configured to measure an intensity of the intracavity optical power of light circulating in the cavity and to generate a third signal representing the intracavity optical power of light circulating in the cavity; and an intelligence module adapted to process the first, second and third signals to produce a normalized signal, wherein a difference between the first signal and the second signal is normalized on the third signal to produce the normalized signal that is a linear function of total cavity loss and that is not sensitive to laser-cavity coupling.
A communication apparatus that is a bridge apparatus or a switch apparatus, and operates as a node of a network, the communication apparatus comprising: a state managing unit configured to update, every time failure occurrence in the network is detected, state information indicating a state of the network; characterized by a FDB control unit operated as a database updating unit configured to update, based on a transmission source address and a reception port of a received frame and the state information managed by the state managing unit, a filtering database, FDB for determining an output port when a frame in which the transmission source address is a destination address is received; and the FDB control unit operated as an output-destination determining unit configured to determine an output port of the received frame by searching through the FDB using, as search keys, the destination address of the received frame and the state information managed by the state managing unit. a state managing unit configured to update, every time failure occurrence in the network is detected, state information indicating a state of the network; characterized by a FDB control unit operated as a database updating unit configured to update, based on a transmission source address and a reception port of a received frame and the state information managed by the state managing unit, a filtering database, FDB for determining an output port when a frame in which the transmission source address is a destination address is received; and the FDB control unit operated as an output-destination determining unit configured to determine an output port of the received frame by searching through the FDB using, as search keys, the destination address of the received frame and the state information managed by the state managing unit.
Compressor housing for a gas turbine having a main flow direction oriented from a compressor inlet to a compressor outlet, comprising a compressor wall enclosing a main flow duct, an air bleed plenum that is arranged separated from the main flow duct by the compressor wall, wherein the main flow duct and the air bleed plenum are connected by a gap arranged in the compressor wall and running in the circumferential direction, and wherein a) the compressor-outlet-side wall of the gap transitions in a step-free manner into the compressor-outlet-side wall of the air bleed plenum, or b) the compressor-inlet-side wall of the gap transitions in a step-free manner into the compressor-inlet-side wall of the air bleed plenum, wherein, in case a), the compressor-inlet-side or, in case b), the compressor-outlet-side wall of the gap transitions into a guide lip that is arranged in the bleed plenum and extends essentially in the radial direction, characterized in that the distance between the guide lip and, in case a), the compressor-outlet-side or, in case b), the compressor-inlet-side wall of the air bleed plenum increases in the radially outward direction. a) the compressor-outlet-side wall of the gap transitions in a step-free manner into the compressor-outlet-side wall of the air bleed plenum, or b) the compressor-inlet-side wall of the gap transitions in a step-free manner into the compressor-inlet-side wall of the air bleed plenum,
A light-emitting device comprising: a substrate; a lens array having a plurality of lens sections in a two-dimensional matrix pattern; a plurality of semiconductor laser elements disposed on an upper surface of the substrate in the two-dimensional matrix pattern, each of the plurality of semiconductor laser elements being configured to emit a laser beam to a respectively different one of the plurality of lens section; and a plurality of mirrors disposed on the upper surface of the substrate in the two-dimensional matrix pattern and configured to reflect the laser beam of the plurality of semiconductor laser elements toward the lens sections, wherein each of the plurality of mirrors is arranged in correspondence with a respectively different one of the plurality of lens sections, each of the plurality of mirrors being positioned directly below a vertex of its corresponding one of the plurality of lens sections, wherein each laser beam having a beam shape with a greater width in a column direction than in a row direction on a light incident surface of each respective lens section, wherein the lens sections have an inter-vertex distance in the row direction that is smaller than both (i) a maximum outer diameter of each of the lens sections, and (ii) an inter-vertex distance in the column direction, and wherein a curvature of the lens sections in the row direction is the same as a curvature of the lens sections in the column direction. a substrate; a lens array having a plurality of lens sections in a two-dimensional matrix pattern; a plurality of semiconductor laser elements disposed on an upper surface of the substrate in the two-dimensional matrix pattern, each of the plurality of semiconductor laser elements being configured to emit a laser beam to a respectively different one of the plurality of lens section; and a plurality of mirrors disposed on the upper surface of the substrate in the two-dimensional matrix pattern and configured to reflect the laser beam of the plurality of semiconductor laser elements toward the lens sections, wherein each of the plurality of mirrors is arranged in correspondence with a respectively different one of the plurality of lens sections, each of the plurality of mirrors being positioned directly below a vertex of its corresponding one of the plurality of lens sections, wherein each laser beam having a beam shape with a greater width in a column direction than in a row direction on a light incident surface of each respective lens section, wherein the lens sections have an inter-vertex distance in the row direction that is smaller than both (i) a maximum outer diameter of each of the lens sections, and (ii) an inter-vertex distance in the column direction, and wherein a curvature of the lens sections in the row direction is the same as a curvature of the lens sections in the column direction.
A wire harness comprising: an exterior member, having a flexibility and tubular shape, and covering at least one conductive path; and a route keeping tape which is more difficult to extend and buckle in a widthwise direction than the exterior member, wherein the route keeping tape is wound helically around a bent part, which is formed by bending the exterior member, along a longitudinal direction. an exterior member, having a flexibility and tubular shape, and covering at least one conductive path; and a route keeping tape which is more difficult to extend and buckle in a widthwise direction than the exterior member, wherein the route keeping tape is wound helically around a bent part, which is formed by bending the exterior member, along a longitudinal direction.