mhurhangee/ep-ind-claims huggingface dataset:
A rearview assembly configured for use with a vehicle, the rearview assembly comprising: a housing; a mounting mechanism for mounting said housing to the vehicle; a first light sensor facing forward with respect to a forward driving orientation of the vehicle and configured to detect ambient light; a second light sensor facing forward with respect to a forward driving orientation of the vehicle and configured to detect ambient light, wherein said second light sensor is spaced apart at least 10 cm from said first light sensor; a rearview component configured to display an image rearward of the vehicle; and a processor communicatively connected to said first light sensor, said second light sensor, and said rearview component, wherein said processor is configured to control said rearview component based upon light detected by said first and second light sensors: wherein said rearview component is mounted in said housing, said first light sensor is mounted in said housing on a first side of said mounting mechanism, and said second light sensor is mounted in said housing on a second side of said mounting mechanism that is opposite said first side. a housing; a mounting mechanism for mounting said housing to the vehicle; a first light sensor facing forward with respect to a forward driving orientation of the vehicle and configured to detect ambient light; a second light sensor facing forward with respect to a forward driving orientation of the vehicle and configured to detect ambient light, wherein said second light sensor is spaced apart at least 10 cm from said first light sensor; a rearview component configured to display an image rearward of the vehicle; and a processor communicatively connected to said first light sensor, said second light sensor, and said rearview component, wherein said processor is configured to control said rearview component based upon light detected by said first and second light sensors: wherein said rearview component is mounted in said housing, said first light sensor is mounted in said housing on a first side of said mounting mechanism, and said second light sensor is mounted in said housing on a second side of said mounting mechanism that is opposite said first side. wherein said rearview component is mounted in said housing, said first light sensor is mounted in said housing on a first side of said mounting mechanism, and said second light sensor is mounted in said housing on a second side of said mounting mechanism that is opposite said first side.
An assembly, comprising: a base member fixed within a row of passenger seats of a vehicle, the base member having an attachment member; a seat unit including a frame having an attachment member adapted for removable attachment with the attachment member of the base member; and a console unit including a frame having an attachment member adapted for removable attachment with the attachment member of the base member, wherein the attachment member of the base member includes a protuberance having outer surface dimensions; the attachment member of the seat unit includes a first opening having inner surface dimensions substantially corresponding to the outer surface dimensions of the protuberance and adapted for a press-fit connection with the protuberance; and the attachment member of the console unit includes a second opening having inner surface dimensions substantially corresponding to the outer surface dimensions of the protuberance and adapted for a press-fit connection with the protuberance. a base member fixed within a row of passenger seats of a vehicle, the base member having an attachment member; a seat unit including a frame having an attachment member adapted for removable attachment with the attachment member of the base member; and a console unit including a frame having an attachment member adapted for removable attachment with the attachment member of the base member, wherein the attachment member of the base member includes a protuberance having outer surface dimensions; the attachment member of the seat unit includes a first opening having inner surface dimensions substantially corresponding to the outer surface dimensions of the protuberance and adapted for a press-fit connection with the protuberance; and the attachment member of the console unit includes a second opening having inner surface dimensions substantially corresponding to the outer surface dimensions of the protuberance and adapted for a press-fit connection with the protuberance.
A target (2a, 2b) for a cathode atomization system, having a tubular target body (4a, 4b) made of an atomization material, and two connection pieces (10a, 10b), connectable to the target body (4a, 4b), for connecting the target body (4a, 4b) to a cathode atomization system, wherein a first connection piece is connectable to a first end of the target body (4a, 4b) and a second connection piece is connectable to a second end of the target body (4a, 4b), wherein at least one locking means (12a-h) is formed on each connection piece (10a, 10b), in order to connect the respective connection piece (10a, 10b) to the target body (4a, 4b) in a manner secured against rotation, wherein the at least one locking means (12a-h) is formed in one piece with the respective connection piece (10a, 10b).
Continuous process for the preparation of nitrobenzene by the nitration of benzene, wherein a) a benzene-containing stream (a.1) is reacted in a reactor with a mixture of sulfuric acid (a.2) and nitric acid (a.3) under adiabatic conditions, the benzene being used in a stoichiometric excess, based on nitric acid (a.3), and the quantity M' of the benzene-containing stream (a.1) fed into the reactor per hour being increased over a period of time t from the beginning of the nitration until a preset target value for M' is achieved, b) the process product obtained in step a) is separated in a phase separation apparatus into an aqueous phase (b.1) comprising sulfuric acid and an organic phase (b.2) comprising nitrobenzene, c) the aqueous phase (b.1) obtained in step b) is concentrated by evaporation of the water in an evaporation apparatus to give an aqueous phase (c.1) comprising sulfuric acid and having a higher sulfuric acid concentration than (b.1), and the phase (c.1) being recycled into step a) via a sulfuric acid tank and used as a component of (a.2), and d) the organic phase (b.2) obtained in step b) is worked up to pure nitrobenzene (d.1), characterized in that at least during the period of time t, only such a sulfuric acid stream (a.2) having a content of organic compounds of less than 1.0 mass percent, based on the total mass of (a.2), is fed into the reactor. a) a benzene-containing stream (a.1) is reacted in a reactor with a mixture of sulfuric acid (a.2) and nitric acid (a.3) under adiabatic conditions, the benzene being used in a stoichiometric excess, based on nitric acid (a.3), and the quantity M' of the benzene-containing stream (a.1) fed into the reactor per hour being increased over a period of time t from the beginning of the nitration until a preset target value for M' is achieved, b) the process product obtained in step a) is separated in a phase separation apparatus into an aqueous phase (b.1) comprising sulfuric acid and an organic phase (b.2) comprising nitrobenzene, c) the aqueous phase (b.1) obtained in step b) is concentrated by evaporation of the water in an evaporation apparatus to give an aqueous phase (c.1) comprising sulfuric acid and having a higher sulfuric acid concentration than (b.1), and the phase (c.1) being recycled into step a) via a sulfuric acid tank and used as a component of (a.2), and d) the organic phase (b.2) obtained in step b) is worked up to pure nitrobenzene (d.1),
A method performed by a base station, the method comprising: communicating, by the base station, with a user equipment on a carrier; sending, from the base station to the user equipment, an uplink grant, wherein the uplink grant includes a field indicating at least whether an initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is reserved for a sounding reference signal transmission of a subframe; and receiving at the base station from the user equipment, the sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol of the subframe; and receiving at the base station from the user equipment, a physical uplink shared channel in at least a portion of a remaining part of the subframe, wherein the remaining part of the subframe occurs later than the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol, wherein the uplink grant field further includes an indication requesting the sounding reference signal transmission, and wherein the reception of the sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is in response to a particular value of the field in the uplink grant requesting the sounding reference signal transmission. communicating, by the base station, with a user equipment on a carrier; sending, from the base station to the user equipment, an uplink grant, wherein the uplink grant includes a field indicating at least whether an initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is reserved for a sounding reference signal transmission of a subframe; and receiving at the base station from the user equipment, the sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol of the subframe; and receiving at the base station from the user equipment, a physical uplink shared channel in at least a portion of a remaining part of the subframe, wherein the remaining part of the subframe occurs later than the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol, wherein the uplink grant field further includes an indication requesting the sounding reference signal transmission, and wherein the reception of the sounding reference signal in the initial discrete Fourier transform spread orthogonal frequency division multiplexing symbol is in response to a particular value of the field in the uplink grant requesting the sounding reference signal transmission.
A multiple beam shaping illumination system, for increasing uniformity of irradiance upon a selected target area, in which: a) a beam shaper receives input distributions of light from at least one light source and emits output distributions of light having output pathway angles different than corresponding input pathway angles, the output distributions of light having essentially Gaussian intensity profiles; characterised in that b) the beam shaper has a multiplicity of light passage facets for a corresponding multiplicity of output distributions of light, at least two such facets being angled with respect to one another to effect a complementary overlapping of adjacent output distributions of light. a) a beam shaper receives input distributions of light from at least one light source and emits output distributions of light having output pathway angles different than corresponding input pathway angles, the output distributions of light having essentially Gaussian intensity profiles; characterised in that b) the beam shaper has a multiplicity of light passage facets for a corresponding multiplicity of output distributions of light, at least two such facets being angled with respect to one another to effect a complementary overlapping of adjacent output distributions of light.
A computer implemented method of frequency-varying filtering seismic data resulting from simultaneous emissions at multiple swept frequency vibratory seismic energy sources to reception at seismic energy receivers for a subsurface area of interest, comprising the steps of: assembling in a computer seismic data received at the receivers into common offset data gathers; transforming the common offset data gathers in the computer into the frequency-space domain; determining a median trace amplitude for selected frequency slices of interest for the gathers in the frequency - space domain; normalizing the amplitudes in individual ones of the traces in the selected frequency slices of interest for the gathers in the frequency - space domain based on the determined median trace amplitude; applying a variable-frequency mean filter to the traces of the selected frequency slices of interest; and storing the data from variable-frequency mean filtered traces of the selected frequency slices of interest. assembling in a computer seismic data received at the receivers into common offset data gathers; transforming the common offset data gathers in the computer into the frequency-space domain; determining a median trace amplitude for selected frequency slices of interest for the gathers in the frequency - space domain; normalizing the amplitudes in individual ones of the traces in the selected frequency slices of interest for the gathers in the frequency - space domain based on the determined median trace amplitude; applying a variable-frequency mean filter to the traces of the selected frequency slices of interest; and storing the data from variable-frequency mean filtered traces of the selected frequency slices of interest.
A blast resistant and dispersement accessory adapted for retro-fitting to an existing safe or similar security device, said accessory comprising an auxiliary casing formed of blast resistant materials adapted for retro-fitting to the body of said safe, said auxiliary casing including an interior chamber to receive the explosive gasses generated by said blast, one or a plurality of vent holes communicating with said interior chamber and adapted to communicate with the interior of the safe, the auxiliary casing further comprising a sacrificial exterior vent door or the like, adapted to deploy open or to dissipate said explosive gasses applied to the interior of said safe and conduited to the said interior chamber wherein said exterior vent door is positioned remote from said vent holes so as to prevent direct access to said safe upon deployment; characterized in that said auxiliary casing includes one or a plurality of internal baffles positioned between said vent holes and said exterior vent door.
Exhaust-gas aftertreatment device for the dosed injection of a liquid exhaust-gas aftertreatment agent into an exhaust-gas stream of an internal combustion engine, having a mixing chamber in which the exhaust-gas aftertreatment agent is mixed with the exhaust-gas stream, wherein the mixing chamber has a circular cylindrical mixing pipe which has a funnel-shaped end section which increases in circumference toward a free end, with a funnel element which opens conically at least in certain sections in the direction of the mixing pipe and which has multiple throughflow openings in its shell wall, and wherein, on that end of the funnel element which is averted from the mixing pipe, there is arranged an injection valve for the exhaust-gas aftertreatment agent for the purposes of injecting the exhaust-gas aftertreatment agent into the funnel element, wherein the funnel element is situated at least substantially within the end section and coaxially with respect to the end section, and that at least some of the throughflow openings are assigned a respective flow-guiding element, which is elevated from the shell wall, for generating a swirling flow in the mixing pipe, characterized in that the throughflow openings in a region close to the injection valve have no flow-guiding element.
A method of assembling a shape memory alloy actuator arrangement comprising a static part and a moving part, and at least one shape memory alloy wire extending therebetween, the method characterised by providing a strut element shaped to comprise a sacrificial strut body and crimp tabs held apart by the sacrificial strut body; laying at least one shape memory alloy wire across the crimp tabs of the strut element; folding and pressing the crimp tabs over the shape memory alloy wire to form crimps holding the shape memory alloy wire therebetween; attaching the crimps to the static part and the moving part, respectively; and removing the sacrificial strut body, leaving the crimps attached to the static part and the moving part, respectively.
An apparatus, comprising: a processor configured to cause a base station to: establish a wireless link with a user equipment, UE; transmit first downlink control information, DCI, to the UE over an unlicensed spectrum during a first channel occupancy time, COT, wherein the first DCI schedules a plurality of shared channel communications; perform the plurality of shared channel communications according to the first DCI; and transmit second DCI to the UE over the unlicensed spectrum during a second COT, wherein the second DCI instructs the UE to shift the scheduling of at least a subset of the plurality of shared channel communications by an indicated amount, wherein the indicated amount shifts the at least the subset of the plurality of shared channel communications into the second COT. establish a wireless link with a user equipment, UE; transmit first downlink control information, DCI, to the UE over an unlicensed spectrum during a first channel occupancy time, COT, wherein the first DCI schedules a plurality of shared channel communications; perform the plurality of shared channel communications according to the first DCI; and transmit second DCI to the UE over the unlicensed spectrum during a second COT, wherein the second DCI instructs the UE to shift the scheduling of at least a subset of the plurality of shared channel communications by an indicated amount, wherein the indicated amount shifts the at least the subset of the plurality of shared channel communications into the second COT.
A method, comprising: receiving, by a processor of an apparatus, control information from a network apparatus via a radio frequency, RF, transceiver of the apparatus; receiving, by the processor, downlink data, from the network apparatus via the RF transceiver, in an event that the control information indicates that the downlink data is scheduled in a transmission time interval, TTI; and reporting, by the processor, a channel quality of a first sub-frequency band to the network apparatus in an event that the control information indicates the apparatus to report channel quality information; wherein the downlink data is scheduled in a part of the TTI but not in other parts of the TTI, wherein the method is characterized by: the receiving of the control information comprises: turning on the RF transceiver to monitor the control information in the first sub-frequency band with narrower frequency span of an anchor carrier; and adjusting the RF transceiver from a first sub-frequency band to a second sub-frequency band in response to the control information indicating the apparatus to change sub-frequency band. receiving, by a processor of an apparatus, control information from a network apparatus via a radio frequency, RF, transceiver of the apparatus; receiving, by the processor, downlink data, from the network apparatus via the RF transceiver, in an event that the control information indicates that the downlink data is scheduled in a transmission time interval, TTI; and reporting, by the processor, a channel quality of a first sub-frequency band to the network apparatus in an event that the control information indicates the apparatus to report channel quality information; wherein the downlink data is scheduled in a part of the TTI but not in other parts of the TTI, wherein the method is characterized by: the receiving of the control information comprises: turning on the RF transceiver to monitor the control information in the first sub-frequency band with narrower frequency span of an anchor carrier; and adjusting the RF transceiver from a first sub-frequency band to a second sub-frequency band in response to the control information indicating the apparatus to change sub-frequency band. turning on the RF transceiver to monitor the control information in the first sub-frequency band with narrower frequency span of an anchor carrier; and adjusting the RF transceiver from a first sub-frequency band to a second sub-frequency band in response to the control information indicating the apparatus to change sub-frequency band.
A method of foaming and shaping a thermoplastic sheet, comprising: foaming a thermoplastic sheet with supercritical carbon dioxide to form a foamed thermoplastic sheet; wherein the thermoplastic sheet comprises a thermoplastic composition comprising a poly(phenylene ether), a polyetherimide, or a combination thereof; and wherein the thermoplastic composition having a glass transition temperature of 20 to 300 °C determined by differential scanning calorimetry according to ASTM D3418-15 at heating rate of 20 °C/minute; and characterized in that the method further comprises shaping the foamed thermoplastic sheet to form a shaped foamed thermoplastic sheet; wherein the shaping comprises compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate; wherein a surface of the first metal plate and a surface of the second metal plate comprise a plurality of grooves, each groove having a width of 0.1 to 1 millimeter and a depth of 0.1 to 1 millimeter, and each groove being separated from the nearest groove by a center-to-center distance of 0.5 to 5 millimeters; wherein the first metal plate and the second metal plate are connected by a flexible linkage capable of modulating a separation between the first metal plate and the second metal plate; and wherein the compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate comprises controlling a minimum separation of the first metal plate and the second metal plate. foaming a thermoplastic sheet with supercritical carbon dioxide to form a foamed thermoplastic sheet; wherein the thermoplastic sheet comprises a thermoplastic composition comprising a poly(phenylene ether), a polyetherimide, or a combination thereof; and wherein the thermoplastic composition having a glass transition temperature of 20 to 300 °C determined by differential scanning calorimetry according to ASTM D3418-15 at heating rate of 20 °C/minute; and characterized in that the method further comprises shaping the foamed thermoplastic sheet to form a shaped foamed thermoplastic sheet; wherein the shaping comprises compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate; wherein a surface of the first metal plate and a surface of the second metal plate comprise a plurality of grooves, each groove having a width of 0.1 to 1 millimeter and a depth of 0.1 to 1 millimeter, and each groove being separated from the nearest groove by a center-to-center distance of 0.5 to 5 millimeters; wherein the first metal plate and the second metal plate are connected by a flexible linkage capable of modulating a separation between the first metal plate and the second metal plate; and wherein the compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate comprises controlling a minimum separation of the first metal plate and the second metal plate.