mhurhangee/ep-ind-claims huggingface dataset:
An automotive testing system, comprising a data processing unit provided with a data input port for receiving sensor input data and a data output port for transmitting processed data, further comprising a data acquisition unit forwarding sensor input data to said data processing unit, the data acquisition unit including a sensor unit having a sensor system and an electronic system for capturing sensor data, characterised in that the automotive testing system further comprises a synthetic sensor data generator transmitting synthetic sensor data to the electronic system of the sensor unit, further comprising a data transmission channel interconnecting the synthetic sensor data generator and the electronic system of the sensor unit, wherein the electronic system of the sensor unit comprises a digital signal processing unit, wherein the testing system is arranged for repeatedly performing a sequence of steps using a first feedback loop, the steps of the sequence including the steps of: - generating the synthetic sensor data, - transmitting the synthetic sensor data to a digital signal processing unit, and - receiving image enhancements request and/or commands from the digital signal processing unit. - generating the synthetic sensor data, - transmitting the synthetic sensor data to a digital signal processing unit, and - receiving image enhancements request and/or commands from the digital signal processing unit.
A broadcast receiving apparatus comprising: v a sensor to detect variation in a power from a power supply to an external apparatus, said external apparatus being connected to the power supply via the broadcast receiving apparatus, and output a DC voltage corresponding to the detection result; and a controller to determine, based on detected variation in a digital voltage corresponding to the DC voltage output by the sensor, an on/off state of the external apparatus, CHARACTERIZED BY a power supply controller to selectively cut off power supplied to a component of the broadcast receiving apparatus based on power saving data, wherein the power saving data includes information indicating whether to supply or cut off power to the component; wherein the controller provides the power saving data to the power supply controller based on the determined on/off state of the external apparatus, wherein the component includes at least one of the controller, a storage device, a universal serial bus and a high definition multimedia interface(HDMI).
A process for forming a polymeric article from a recycled multi-layer structure comprising the steps of; a. forming a multi-layer article, having each layer adhered to the adjoining layer(s), wherein said multi-layer structure comprises one or more fluoropolymer layers, said fluoropolymer consisting of a polyvinylidene fluoride (PVDF) homopolymer or a copolymer of vinylidene fluoride wherein the vinylidene fluoride units comprise greater than 70 weight percent of all the monomer units in the polymer, said multi-layer structure comprising an inner vinylidene fluoride layer and at least one non-fluoropolymer layer, b. washing and/or sterilizing the multi-layer structure; c. grinding the washed and/or sterilized multi-layer structure into small pieces or flakes; d. cleaning the pieces or flakes to remove non-polymeric materials and other contaminants; e. Optionally screening or sizing the flakes or pieces, and regrinding if needed to obtain the desired average particle size; f. mixing or blending the flakes or small pieces; g. melting the flakes or small pieces; h. extruding the melted flakes or small pieces into pellets; and i. thermoforming the melted flakes, small pieces or pellets into final articles. a. forming a multi-layer article, having each layer adhered to the adjoining layer(s), wherein said multi-layer structure comprises one or more fluoropolymer layers, said fluoropolymer consisting of a polyvinylidene fluoride (PVDF) homopolymer or a copolymer of vinylidene fluoride wherein the vinylidene fluoride units comprise greater than 70 weight percent of all the monomer units in the polymer, said multi-layer structure comprising an inner vinylidene fluoride layer and at least one non-fluoropolymer layer, b. washing and/or sterilizing the multi-layer structure; c. grinding the washed and/or sterilized multi-layer structure into small pieces or flakes; d. cleaning the pieces or flakes to remove non-polymeric materials and other contaminants; e. Optionally screening or sizing the flakes or pieces, and regrinding if needed to obtain the desired average particle size; f. mixing or blending the flakes or small pieces; g. melting the flakes or small pieces; h. extruding the melted flakes or small pieces into pellets; and i. thermoforming the melted flakes, small pieces or pellets into final articles.
A blood analysis method for a blood cell analyzer, characterized in that the blood cell analyzer comprises a single reaction cell for leukocyte detection where a testing sample is prepared from a blood sample, and a single detection apparatus for leukocyte detection which detects the testing sample, and said method comprises: injecting a blood sample and a first reagent into the reaction cell, wherein the first reagent lyses erythrocytes in the blood sample and reacts with leukocytes in the blood sample to make each subclass of the leukocytes cluster, to obtain a first testing sample; transferring a part of the first testing sample from the reaction cell to the detection apparatus to perform a detection for leukocyte four-group classification detection, and remaining the other part of the first testing sample in the reaction cell, wherein four-group classification includes classification of neutrophil and basophil as one group; injecting a second reagent into the reaction cell having a remainder of the first testing sample after transferring the part of the first testing sample, wherein the second reagent further reacts with leukocytes in the remainder of the first testing sample to shrink other leukocytes except for basophils, to obtain a second testing sample; and transferring the second testing sample to the detection apparatus to perform a detection for basophil classification detection, to obtain a basophil classification result; and/or measuring the second testing sample for hemoglobin measurement. injecting a blood sample and a first reagent into the reaction cell, wherein the first reagent lyses erythrocytes in the blood sample and reacts with leukocytes in the blood sample to make each subclass of the leukocytes cluster, to obtain a first testing sample; transferring a part of the first testing sample from the reaction cell to the detection apparatus to perform a detection for leukocyte four-group classification detection, and remaining the other part of the first testing sample in the reaction cell, wherein four-group classification includes classification of neutrophil and basophil as one group; injecting a second reagent into the reaction cell having a remainder of the first testing sample after transferring the part of the first testing sample, wherein the second reagent further reacts with leukocytes in the remainder of the first testing sample to shrink other leukocytes except for basophils, to obtain a second testing sample; and transferring the second testing sample to the detection apparatus to perform a detection for basophil classification detection, to obtain a basophil classification result; and/or measuring the second testing sample for hemoglobin measurement.
A capacitive sensor device with continuous self-test, the sensor device comprising - at least two inertial channels (CH1, CH2, CH3, CH4); - at least two capacitive elements (100, 102; 300a, 300b, 302a, 302b; 501) configured to detect said at least two inertial channels (CH1, CH2, CH3, CH4); and - a multiplexer circuitry configured to temporally multiplex said at least two inertial channels, characterized in that the capacitive sensor device is configured such that at least two self-test tones (STF1, STF2, STF3) with distinctive fundamental frequencies are fed into at least one capacitive element (100, 102; 300a, 300b, 302a, 302b; 501) of at least one of the at least two inertial channels (CH1, CH2, CH3, CH4) during different time periods while reading inertial data from a capacitive element (100, 102; 300a, 300b, 302a, 302b; 501) of another of the at least two inertial channels (CH1, CH2, CH3, CH4). - at least two inertial channels (CH1, CH2, CH3, CH4); - at least two capacitive elements (100, 102; 300a, 300b, 302a, 302b; 501) configured to detect said at least two inertial channels (CH1, CH2, CH3, CH4); and - a multiplexer circuitry configured to temporally multiplex said at least two inertial channels,
A therapeutic nanoparticle comprising: 3 to 20 weight percent of a vinca alkaloid; and 50 to 99 weight percent biocompatible polymer, wherein the biocompatible polymer is selected from the group consisting of a) a diblock poly(lactic) acid-poly(ethylene)glycol copolymer, b) a combination of a) and a poly (lactic) acid homopolymer or poly(lactic)-co-(glycolic) acid; and wherein said diblock poly(lactic) acid-poly(ethylene)glycol copolymer comprises poly(lactic acid) having a number average molecular weight of 15 to 20 kDa and poly(ethylene)glycol having a number average molecular weight of 4 to 6 kDa. 3 to 20 weight percent of a vinca alkaloid; and 50 to 99 weight percent biocompatible polymer, wherein the biocompatible polymer is selected from the group consisting of a) a diblock poly(lactic) acid-poly(ethylene)glycol copolymer, b) a combination of a) and a poly (lactic) acid homopolymer or poly(lactic)-co-(glycolic) acid; and wherein said diblock poly(lactic) acid-poly(ethylene)glycol copolymer comprises poly(lactic acid) having a number average molecular weight of 15 to 20 kDa and poly(ethylene)glycol having a number average molecular weight of 4 to 6 kDa. a) a diblock poly(lactic) acid-poly(ethylene)glycol copolymer, b) a combination of a) and a poly (lactic) acid homopolymer or poly(lactic)-co-(glycolic) acid; and
A method of detecting defects in a printing system, the method comprising the steps of: sensing a surface geometry of a sheet to be printed on a transport path of the sheet in the printing system to generate data representative of that surface geometry; processing the generated data by a processor device to detect and classify deformations in the surface geometry of the sheet; determining the suitability for printing of the sheet by comparing the data of the sheet to a reference; and characterized in that the processing step includes selecting the reference depending on at least one of the following: - whether the sheet is on a simplex pass or a duplex pass of the transport path; - an operating mode of the printing system; - a position of a detected deformation on the sheet; - a shape or type of a detected deformation; and - a material of the sheet to be printed, such that a unique simplex and duplex reference is set for each material. sensing a surface geometry of a sheet to be printed on a transport path of the sheet in the printing system to generate data representative of that surface geometry; processing the generated data by a processor device to detect and classify deformations in the surface geometry of the sheet; determining the suitability for printing of the sheet by comparing the data of the sheet to a reference; and characterized in that the processing step includes selecting the reference depending on at least one of the following: - whether the sheet is on a simplex pass or a duplex pass of the transport path; - an operating mode of the printing system; - a position of a detected deformation on the sheet; - a shape or type of a detected deformation; and - a material of the sheet to be printed, such that a unique simplex and duplex reference is set for each material. - whether the sheet is on a simplex pass or a duplex pass of the transport path; - an operating mode of the printing system; - a position of a detected deformation on the sheet; - a shape or type of a detected deformation; and - a material of the sheet to be printed, such that a unique simplex and duplex reference is set for each material.
A process for producing microcapsules each comprising a first shell and a second shell which comprise silica as a constitutional component thereof, and a core comprising at least one organic compound which is encapsulated within the first shell, said process comprising the following steps and: step: emulsifying an organic phase comprising the at least one organic compound and a tetraalkoxysilane such that a content of the tetraalkoxysilane in the organic phase is not less than 10% by mass and not more than 60% by mass on the basis of the organic compound, in a water phase comprising a surfactant, and subjecting the resulting emulsion to a sol-gel reaction under acidic conditions to form capsules each comprising the core and the first shell; and step: further adding a tetraalkoxysilane to a water dispersion comprising the capsules obtained in the step, wherein the tetraalkoxysilane is added dropwise in an amount of not less than 10% by mass and not more than 40% by mass on the basis of the organic compound, and subjecting the obtained mixture to a sol-gel reaction while maintaining an initial pH value in the sol-gel reaction of the step below an initial pH value in the sol-gel reaction of the step to form the capsules each comprising the second shell encapsulating the first shell. step: emulsifying an organic phase comprising the at least one organic compound and a tetraalkoxysilane such that a content of the tetraalkoxysilane in the organic phase is not less than 10% by mass and not more than 60% by mass on the basis of the organic compound, in a water phase comprising a surfactant, and subjecting the resulting emulsion to a sol-gel reaction under acidic conditions to form capsules each comprising the core and the first shell; and step: further adding a tetraalkoxysilane to a water dispersion comprising the capsules obtained in the step, wherein the tetraalkoxysilane is added dropwise in an amount of not less than 10% by mass and not more than 40% by mass on the basis of the organic compound, and subjecting the obtained mixture to a sol-gel reaction while maintaining an initial pH value in the sol-gel reaction of the step below an initial pH value in the sol-gel reaction of the step to form the capsules each comprising the second shell encapsulating the first shell.
A method for producing a steel product, said method comprising the following steps in consecutive order: producing a slab, wherein a molten metal is cast to produce the slab, electrolytic grinding reducing treatment, wherein the slab is subjected to a surface-reducing treatment using a surface-reducing device having an electrode, in which a voltage is applied to the electrode, and one or more selected from the group consisting of an elastic grindstone and a flexible abrasive grain unit, hot rolling treatment of the slab, optionally plate annealing, and shot blasting or scale breaking. producing a slab, wherein a molten metal is cast to produce the slab, electrolytic grinding reducing treatment, wherein the slab is subjected to a surface-reducing treatment using a surface-reducing device having an electrode, in which a voltage is applied to the electrode, and one or more selected from the group consisting of an elastic grindstone and a flexible abrasive grain unit, hot rolling treatment of the slab, optionally plate annealing, and shot blasting or scale breaking.
A seatbelt pretensioning retractor assembly for use in a passenger vehicle, the seatbelt pretensioning retractor assembly comprising: a housing adapted for being mounted to a vehicle structure and having an interior cavity; a tube having an arcuate and curved shape having a first end for fluid communication with a gas generator and a second end in fluid communication with the interior cavity of the housing; a sprocket rotatably mounted to the housing and fixedly coupled to a spindle adapted for taking up seatbelt webbing during pretensioning; a driving element comprising a polymer rod configured to extend in a longitudinal direction, wherein the polymer rod is disposed within the tube and is translatable through the tube in a first direction towards the sprocket in response to an actuation by the gas generator; and a stopper coupled to an end portion of the polymer rod, wherein the tube includes a projection extending within the tube adjacent to an exit at the second end to restrict the stopper from crossing the projection, characterized in that the projection has an opening to facilitate venting gas from the gas generator. a housing adapted for being mounted to a vehicle structure and having an interior cavity; a tube having an arcuate and curved shape having a first end for fluid communication with a gas generator and a second end in fluid communication with the interior cavity of the housing; a sprocket rotatably mounted to the housing and fixedly coupled to a spindle adapted for taking up seatbelt webbing during pretensioning; a driving element comprising a polymer rod configured to extend in a longitudinal direction, wherein the polymer rod is disposed within the tube and is translatable through the tube in a first direction towards the sprocket in response to an actuation by the gas generator; and a stopper coupled to an end portion of the polymer rod, wherein the tube includes a projection extending within the tube adjacent to an exit at the second end to restrict the stopper from crossing the projection, characterized in that the projection has an opening to facilitate venting gas from the gas generator.
A sensor assembly adapted to be received within a port defined by a component housing, wherein the component housing includes an exterior port catch, the port including a rib extending radially inwardly therefrom, the sensor assembly comprising: a sensor element joined to a coupling, the coupling including a longitudinal member and a locking member extending radially therefrom, the locking member being configured to rotationally interlock to the rib to prevent withdrawal of the coupling; and a locking housing defining a sleeve adapted to extend over the sensor element, wherein the sleeve includes opposing lateral slots, is configured to engage the exterior port catch, and is adapted to prevent rotational movement and axial movement of the coupling relative to the port when the locking member is rotationally interlocked with the rib to prevent disengagement of the coupling from the port. a sensor element joined to a coupling, the coupling including a longitudinal member and a locking member extending radially therefrom, the locking member being configured to rotationally interlock to the rib to prevent withdrawal of the coupling; and a locking housing defining a sleeve adapted to extend over the sensor element, wherein the sleeve includes opposing lateral slots, is configured to engage the exterior port catch, and is adapted to prevent rotational movement and axial movement of the coupling relative to the port when the locking member is rotationally interlocked with the rib to prevent disengagement of the coupling from the port.
A precursor composite for an electrode material, said precursor composite comprising graphene oxide with a C:O ratio between 2.5 and 3.5, and electrochemically active material comprising a tetravalent vanadium oxohydroxide.
A method, performed by an intelligent personal assistant (100, 800), comprising: reflecting light from an area around the intelligent personal assistant by a reflector (200, 802) into an interior of the intelligent personal assistant, wherein the reflector is supported by a rigid, transparent support structure that maintains the reflector in a position above the housing; receiving, while the rigid, transparent support structure is in an extended position, the reflected light from the reflector by a digital camera positioned inside the intelligent personal assistant and converting the light into electronic signals; receiving the electronic signals from the digital camera by a processor; determining, by the processor, an identity of a user in proximity to the intelligent personal assistant based on the electronic signals; causing, by the processor, an action to be performed based on the identity of the user, and stowing the rigid, transparent support structure inside the housing, thereby placing the rigid, transparent support structure into a retracted position and preventing the camera from receiving light from the area surrounding the intelligent personal assistant (100, 800), wherein stowing the rigid, transparent support structure inside the intelligent personal assistant (100, 800) comprises receiving manual input from the user, pushing the rigid, transparent support structure inside the intelligent personal assistant. reflecting light from an area around the intelligent personal assistant by a reflector (200, 802) into an interior of the intelligent personal assistant, wherein the reflector is supported by a rigid, transparent support structure that maintains the reflector in a position above the housing; receiving, while the rigid, transparent support structure is in an extended position, the reflected light from the reflector by a digital camera positioned inside the intelligent personal assistant and converting the light into electronic signals; receiving the electronic signals from the digital camera by a processor; determining, by the processor, an identity of a user in proximity to the intelligent personal assistant based on the electronic signals; causing, by the processor, an action to be performed based on the identity of the user, and stowing the rigid, transparent support structure inside the housing, thereby placing the rigid, transparent support structure into a retracted position and preventing the camera from receiving light from the area surrounding the intelligent personal assistant (100, 800), wherein stowing the rigid, transparent support structure inside the intelligent personal assistant (100, 800) comprises receiving manual input from the user, pushing the rigid, transparent support structure inside the intelligent personal assistant.
A communication method, comprising learning, by a terminal, of a format of at least one mini-slot group based on a first subcarrier width used for a first control channel and a second subcarrier width used for a second control channel, wherein a slot in which the first control channel is carried comprises the at least one mini-slot group, the mini-slot group comprises at least one mini-slot, the format of the mini-slot group includes a quantity of mini-slots included in one mini-slot group and a quantity of symbols occupied by each mini-slot, the second control channel is carried in the at least one mini-slot, and the first subcarrier width is different from the second subcarrier width; receiving, by the terminal, first signaling sent by an access network device, wherein the first signaling comprises first indication information; determining, by the terminal based on the first indication information, a time-domain location of each mini-slot group in which the second control channel is carried; receiving, by the terminal, second signaling sent by the access network device, wherein the second signaling comprises second indication information; and determining, by the terminal based on the format of the mini-slot group and the second indication information, a time-domain location of a mini-slot that is in each mini-slot group and in which the second control channel is carried.