mhurhangee/ep-ind-claims huggingface dataset:
A method for communication from a second mobile station to a base station or vice versa, the method comprising: - communicating by the second mobile station or the base station, - a first slow associated control channel, referred to as SACCH, slot associated with the second mobile station via a second voice services over adaptive multi-user on one slot, referred to as VAMOS, subchannel in a given multiframe, characterized by - a redundant second SACCH slot associated with the second mobile station in the same multiframe, - the second SACCH slot communicated via the second VAMOS subchannel, with the second VAMOS subchannel being in discontinuous transmission mode, or - the second SACCH slot communicated via a first VAMOS subchannel, with the first VAMOS subchannel being in discontinuous transmission mode, wherein the first and second VAMOS subchannels share a common time slot and have the same carrier frequency. - communicating by the second mobile station or the base station, - a first slow associated control channel, referred to as SACCH, slot associated with the second mobile station via a second voice services over adaptive multi-user on one slot, referred to as VAMOS, subchannel in a given multiframe, characterized by - a redundant second SACCH slot associated with the second mobile station in the same multiframe, - the second SACCH slot communicated via the second VAMOS subchannel, with the second VAMOS subchannel being in discontinuous transmission mode, or - the second SACCH slot communicated via a first VAMOS subchannel, with the first VAMOS subchannel being in discontinuous transmission mode, wherein the first and second VAMOS subchannels share a common time slot and have the same carrier frequency. - a first slow associated control channel, referred to as SACCH, slot associated with the second mobile station via a second voice services over adaptive multi-user on one slot, referred to as VAMOS, subchannel in a given multiframe, characterized by - a redundant second SACCH slot associated with the second mobile station in the same multiframe, - the second SACCH slot communicated via the second VAMOS subchannel, with the second VAMOS subchannel being in discontinuous transmission mode, or - the second SACCH slot communicated via a first VAMOS subchannel, with the first VAMOS subchannel being in discontinuous transmission mode, wherein the first and second VAMOS subchannels share a common time slot and have the same carrier frequency. - the second SACCH slot communicated via the second VAMOS subchannel, with the second VAMOS subchannel being in discontinuous transmission mode, or - the second SACCH slot communicated via a first VAMOS subchannel, with the first VAMOS subchannel being in discontinuous transmission mode, wherein the first and second VAMOS subchannels share a common time slot and have the same carrier frequency.
A method of manufacturing a flexible pipe body, comprising: providing two or more non-bonded composite filaments as a non-bonded filament bundle; applying a lubricant or resin or matrix material to the non-bonded composite filaments; characterised in that the method further comprises: applying a braid element around the filament bundle to thereby form a braided bundle comprising non-bonded filaments; and helically wrapping the braided bundle around a flexible pipe body layer; wherein the method further comprises a step of curing the braided bundle to cause curing of each non-bonded filament, such that each filament remains a discrete element. providing two or more non-bonded composite filaments as a non-bonded filament bundle; applying a lubricant or resin or matrix material to the non-bonded composite filaments; characterised in that the method further comprises: applying a braid element around the filament bundle to thereby form a braided bundle comprising non-bonded filaments; and helically wrapping the braided bundle around a flexible pipe body layer; wherein the method further comprises a step of curing the braided bundle to cause curing of each non-bonded filament, such that each filament remains a discrete element.
A golf bag, comprising a club holder, provided with supporting legs, for receiving golf clubs, which golf bag is adjustable between a collapsed position in which the supporting legs extend substantially along the club holder, and a folded-out position in which the supporting legs extend away from the club holder and support the club holder in an inclined position, wherein the club holder comprises a flexible pouch for therein receiving golf clubs by the shaft thereof that in the folded-out position hangs out, characterized in that a sack-shaped part of the flexible pouch forms a flexible front panel of the golf bag.
An apparatus for generating light intensity control data in an automotive lamp of a vehicle, wherein a light source unit of the automotive lamp is configured to form, on a region ahead of the vehicle, a two-dimensional light intensity distribution corresponding to said light intensity control data, said apparatus comprising: a preprocessing unit configured to receive initial image data (IMG 1) based on an image of the region ahead of the vehicle captured by a camera, wherein said initial image data (IMG 1) includes random noise due to the camera, and to generate intermediate image data (IMG 2) based on the initial image data (IMG 1), wherein, for each pixel in the initial image data (IMG 1) having a value within a predetermined gradation range, the number of gradations of a pixel value in the intermediate image data (IMG 2) is smaller than the number of gradations of the corresponding pixel value in the initial image data (IMG 1), and wherein the predetermined gradation range is determined such that a noticeable effect of the noise in the initial image data (IMG 1) on the two-dimensional light intensity distribution formed by the light source unit is reduced; and a light distribution pattern generator configured to generate the light intensity control data based on the intermediate image data (IMG 2). a preprocessing unit configured to receive initial image data (IMG 1) based on an image of the region ahead of the vehicle captured by a camera, wherein said initial image data (IMG 1) includes random noise due to the camera, and to generate intermediate image data (IMG 2) based on the initial image data (IMG 1), wherein, for each pixel in the initial image data (IMG 1) having a value within a predetermined gradation range, the number of gradations of a pixel value in the intermediate image data (IMG 2) is smaller than the number of gradations of the corresponding pixel value in the initial image data (IMG 1), and wherein the predetermined gradation range is determined such that a noticeable effect of the noise in the initial image data (IMG 1) on the two-dimensional light intensity distribution formed by the light source unit is reduced; and wherein said initial image data (IMG 1) includes random noise due to the camera, and to generate intermediate image data (IMG 2) based on the initial image data (IMG 1), wherein, for each pixel in the initial image data (IMG 1) having a value within a predetermined gradation range, the number of gradations of a pixel value in the intermediate image data (IMG 2) is smaller than the number of gradations of the corresponding pixel value in the initial image data (IMG 1), and wherein the predetermined gradation range is determined such that a noticeable effect of the noise in the initial image data (IMG 1) on the two-dimensional light intensity distribution formed by the light source unit is reduced; and a light distribution pattern generator configured to generate the light intensity control data based on the intermediate image data (IMG 2).
A monitoring video generation method, applicable to a CT machine, wherein a monitored target is located on a patient table of the CT machine, and the patient table of the CT machine is movable relative to a gantry of the CT machine in an extending direction, the monitoring video generation method comprising: Acquiring a plurality of primary videos comprising the monitored target, wherein fields of view of the plurality of primary videos are fixed relative to a position of the gantry of the CT machine; characterized in that it further comprises: Determining a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining, for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting, for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box. Acquiring a plurality of primary videos comprising the monitored target, wherein fields of view of the plurality of primary videos are fixed relative to a position of the gantry of the CT machine; characterized in that it further comprises: Determining a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining, for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting, for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box. Determining a keyframe according to a region in an initial frame of each of the primary videos surrounding the monitored target, and determining a bounding box surrounding the monitored target in the keyframe; Determining, for each of the primary videos, a bounding box surrounding the monitored target in each subsequent frame; and Selecting, for each frame moment from the frames of the plurality of primary videos, a frame in which the region of the monitored target within the bounding box has a largest area as the keyframe, and generating a monitoring video in real time according to a part of each selected keyframe located within the bounding box.
Use of a DNA base associated with a cell free nucleosome as a biomarker in a body fluid sample for the diagnosis of cancer, cardiomyopathy, systemic lupus erythematosus, colitis, chronic obstructive pulmonary disorder, Crohn's disease and rheumatoid arthritis, wherein the DNA base is selected from: 5-methylcytosine or 5-hydroxymethylcytosine.
A fluid device comprising: a first housing having one or more first flow channels (111 to 114); a second housing (2, 3, 33, 35) having second flow channels (41 and 42) that are larger in number than the first flow channels (111 to 114); and a distributor plate having a third flow channel connecting a predetermined one of the first flow channels (111 to 114) and corresponding ones of the second flow channels (41 and 42), wherein the distributor plate is sandwiched between the first housing and the second housing (2, 3, 33, 35) in a thickness direction of the distributor plate such that end surfaces (101 and 102) of the distributor plate are in contact respectively with the first and second housings (45 and 2, 3, 33, 35), characterized in that the third flow channel includes: a plurality of through flow channels arranged next to each other in a circumferential direction, the through flow channels opening at the end surfaces (101 and 102); and one or more connecting groove flow channels (104, 105, 106, 107) extending in the circumferential direction, the connecting groove flow channel (104, 105, 106, 107) connecting together more than one of the through flow channels. a first housing having one or more first flow channels (111 to 114); a second housing (2, 3, 33, 35) having second flow channels (41 and 42) that are larger in number than the first flow channels (111 to 114); and a distributor plate having a third flow channel connecting a predetermined one of the first flow channels (111 to 114) and corresponding ones of the second flow channels (41 and 42), wherein the distributor plate is sandwiched between the first housing and the second housing (2, 3, 33, 35) in a thickness direction of the distributor plate such that end surfaces (101 and 102) of the distributor plate are in contact respectively with the first and second housings (45 and 2, 3, 33, 35), characterized in that the third flow channel includes: a plurality of through flow channels arranged next to each other in a circumferential direction, the through flow channels opening at the end surfaces (101 and 102); and one or more connecting groove flow channels (104, 105, 106, 107) extending in the circumferential direction, the connecting groove flow channel (104, 105, 106, 107) connecting together more than one of the through flow channels. a plurality of through flow channels arranged next to each other in a circumferential direction, the through flow channels opening at the end surfaces (101 and 102); and one or more connecting groove flow channels (104, 105, 106, 107) extending in the circumferential direction, the connecting groove flow channel (104, 105, 106, 107) connecting together more than one of the through flow channels.
A method of producing a water-soluble vinyl copolymer for cement dispersant comprising a first step and a second step, said first step consisting of a method of producing a polyetherester monomer shown by Formula 3, said method comprising the step of esterifying of a closed ended polyalkyleneglycol shown by Formula 1 and an unsaturated carboxylic acid shown by Formula 2, using an acid catalyst under a conditions of heating and reduced-pressure, in the absence of solvents and in the presence of p-benzoquinone in an amount of 0.1-0.25 weight % of said closed ended polyalkyleneglycol, while removing generated water by distillation, wherein said Formula 1, said Formula 2 and Formula 3 are respectively: R 3 -O-A-OH (Formula 1) where R 1 and R 2 are each H or methyl group, R 3 is one selected from the group consisting of alkyl groups with 1-22 carbon atoms, benzyl group, phenyl group and alkylphenyl groups each having alkyl group with 1-12 carbon atoms, and A is residual group obtained by removing all hydroxyl groups from a polyalkyleneglycol with a repetition number of oxyalkylene units of 5-250, said oxyalkylene units consisting either only of oxyethylene units or of both oxyethylene units and oxypropylene units; and said second step consisting of obtaining said water-soluble vinyl copolymer by radical copolymerisation of said polyetherester monomer obtained in said first step and vinyl monomer inside an aqueous solution, said vinyl monomer being copolymerizable with said polyetherester monomer.
Sensor array with a sensor housing which is designed for mounting in a slot-like recess of a function unit, and with sensor means accommodated in the sensor housing and designed to determine an operating state of the function unit, and with a locking device (3; 103; 203; 403) designed for stationary positive fixing of the sensor housing in the direction of a longitudinal axis of the slot-like recess of the function unit, wherein the locking device (3; 103; 203; 403) includes at least one positive locking means (21, 29, 30; 121; 421) which is designed for positive fixing of the locking device (3; 103; 203; 403), relative to the longitudinal axis, in the slot-like recess of the function unit, and which has a coupling zone (31; 131; 431) designed for tool engagement for positive locking of the locking device (3; 103; 203; 403) in the slot-like recess, characterised by a covering device (4; 104; 404) which is designed for covering the coupling zone (31; 131; 431) by a covering tongue (42; 142; 442) to prevent unauthorised tool engagement, and which is designed with at least one latching nose (34; 134; 434) at a first end section, and a U-shaped clip-like latching zone (36; 136; 436) at a second end section, in order to ensure stationary fixing of the sensor housing in the direction of the longitudinal axis, against the positive locking effect of the locking device (3; 103; 203; 403).
A method for processing data in a synchronous storage device (120, 500), the method comprising: receiving a write command from a processor; setting a write restriction time for the write command by the processor, wherein the write restriction time is different for each write command of the processor; writing data according to the write command received from the processor; determining whether the write restriction time has elapsed before the writing of the data is completed; discontinuing the writing of the data upon expiration of the set write restriction time; transmitting a response message to the processor, wherein the response message comprises at least one of information about a size of data written until the writing of the data is discontinued and information indicating whether the write command has been completely executed; and performing a read operation requested after the write command in response to the discontinuing of the writing. receiving a write command from a processor; setting a write restriction time for the write command by the processor, wherein the write restriction time is different for each write command of the processor; writing data according to the write command received from the processor; determining whether the write restriction time has elapsed before the writing of the data is completed; discontinuing the writing of the data upon expiration of the set write restriction time; transmitting a response message to the processor, wherein the response message comprises at least one of information about a size of data written until the writing of the data is discontinued and information indicating whether the write command has been completely executed; and performing a read operation requested after the write command in response to the discontinuing of the writing.
Method for operating a sensor which is provided in an exhaust gas system of an internal combustion engine for determining the emissions contained in an exhaust gas flow, in particular, of nitrogen oxides and/or ammonia and/or oxygen and/or unburnt carbon, with the exhaust gas flow acting on the sensor during measurement phases and, between the measurement phases, the sensor is at least largely kept free from the exhaust gas flow, characterized in that a measurement space (6, 19) which surrounds the sensor is exposed to a flushing gas, preferably to a pressurized flushing gas immediately after a measurement phase, as a result of which the exhaust gas present in the measurement space (6, 19) is displaced out of the measurement space (6, 19) into the exhaust gas flow.
A flow measurement apparatus for measuring a parameter of a flow formed from a fluid which flows in a main direction of flow in a line, comprising a first line section for conducting the fluid out of the main direction of flow; a second line section for conducting the fluid back into the main direction of flow; a line connection section for connecting the first line section to the second line section; at least one ultrasound device for transmitting and/or receiving ultrasound waves; and an evaluation unit for carrying out a transit-time difference measurement and for determining the parameter, wherein the line connection section is configured as a 180° elbow and forms, together with a first straight line piece and a second straight line piece (LS1, LS2), a U-shaped passage, with the first straight line piece being located between the first line section and the line connection section and the second straight line piece being located between the line connection section and the second line section, characterized by at least one swirl generation unit for generating a swirl which is arranged downstream of the first line section and upstream of a conditioner such that the generated swirl is directed in a direction which is opposite to a direction of a swirl present downstream of the first line section and upstream of the swirl generation unit, and wherein the swirl generation unit is configured to direct the fluid against the inner wall of the first straight line piece.
A method of decoding a data stream from a received signal, the method comprising: determining that the received signal comprises a sequence of one or more chirp signals having a profile of instantaneous frequency ( f i ( t)) variation over time, wherein the chirp signals are generated at a transmitter by circularly time-shifting a single generator chirp signal and the instantaneous frequency ( f i ( t)) of a chirp signal is zero at a unique inversion time ( τ n), and, for each chirp signal: determining the inversion time of the chirp signal in a synchronized single discriminator stage by comparing by-the-fly the chirp signal in a single correlator with a unique fixed pattern symbol and detecting a correlation peak position, that is univocally related to the time-shift and to the inversion time ( τ n), and determining that the inversion time ( τ n) uniquely corresponds to a respective symbol, which represents a sequence of one or more bits; and decoding the received signal by reconstructing the data stream from the sequence of one or more bits corresponding to the respective symbol corresponding to each chirp signal, and wherein the inversion times ( τ n) of the chirp signals represent the data stream. determining that the received signal comprises a sequence of one or more chirp signals having a profile of instantaneous frequency ( f i ( t)) variation over time, wherein the chirp signals are generated at a transmitter by circularly time-shifting a single generator chirp signal and the instantaneous frequency ( f i ( t)) of a chirp signal is zero at a unique inversion time ( τ n), and, for each chirp signal: determining the inversion time of the chirp signal in a synchronized single discriminator stage by comparing by-the-fly the chirp signal in a single correlator with a unique fixed pattern symbol and detecting a correlation peak position, that is univocally related to the time-shift and to the inversion time ( τ n), and determining that the inversion time ( τ n) uniquely corresponds to a respective symbol, which represents a sequence of one or more bits; and decoding the received signal by reconstructing the data stream from the sequence of one or more bits corresponding to the respective symbol corresponding to each chirp signal, and wherein the inversion times ( τ n) of the chirp signals represent the data stream.