mhurhangee/patent-ind-claim-en huggingface dataset:
A method of treating an exhaust gas containing methane by oxidation, the exhaust gas being produced by a natural gas engine, which method comprises: contacting the exhaust gas with a catalytic material comprising a molecular sieve and a platinum group metal (PGM) supported on the molecular sieve, wherein the molecular sieve has a framework consisting of silicon, oxygen and heteroatom T-atoms (tetrahedrally coordinated atoms), wherein the heteroatom T-atoms are not silicon and not oxygen, wherein the framework has a content of heteroatom T-atoms of ≤ 0.20 mol%.
A reduced-bandwidth wireless transmit receive unit, WTRU, comprising: a processor configured to at least: receive configuration information indicating a set of physical random access channel, PRACH, resources associated with a reduced-bandwidth operation and a set of PRACH parameters associated with the reduced-bandwidth operation; select a preamble from the set of PRACH resources; send a preamble transmission using the selected preamble in accordance with at least one PRACH parameter of the set of PRACH parameters; receive downlink, DL, control information associated with a random access response, wherein the DL control information associated with the random access response is received on a control channel resource, wherein the control channel resource is associated with a machine-type communication, MTC, physical downlink control channel, M-PDCCH, and wherein the control channel resource is determined based on the selected preamble from the set of PRACH resources used for the preamble transmission; and receive the random access response in accordance with the received DL control information. receive configuration information indicating a set of physical random access channel, PRACH, resources associated with a reduced-bandwidth operation and a set of PRACH parameters associated with the reduced-bandwidth operation; select a preamble from the set of PRACH resources; send a preamble transmission using the selected preamble in accordance with at least one PRACH parameter of the set of PRACH parameters; receive downlink, DL, control information associated with a random access response, wherein the DL control information associated with the random access response is received on a control channel resource, wherein the control channel resource is associated with a machine-type communication, MTC, physical downlink control channel, M-PDCCH, and wherein the control channel resource is determined based on the selected preamble from the set of PRACH resources used for the preamble transmission; and receive the random access response in accordance with the received DL control information.
A method for decoding data, comprising: demodulating a voltage or current waveform in each tank circuit of a plurality of inductive power transfer circuits to obtain at least one demodulated signal from each tank circuit , and characterised by : capturing a bit sequence from each demodulated signal by clocking signal state of each demodulated signal through a direct memory access, DMA, circuit ; streaming bit sequences received from the DMA circuit into a plurality of data streams ; and decoding one or more messages from the plurality of data streams . capturing a bit sequence from each demodulated signal by clocking signal state of each demodulated signal through a direct memory access, DMA, circuit ; streaming bit sequences received from the DMA circuit into a plurality of data streams ; and decoding one or more messages from the plurality of data streams .
A flow sensor comprising: a semiconductor device having an air flow sensing unit and a diaphragm formed thereto; an electric control circuit for controlling the semiconductor device ; a lead frame , to which the semiconductor device and the electric control circuit are mounted; and a spacer , wherein the spacer is disposed in a clearance between the lead frame and the semiconductor device on a side of the semiconductor device opposite from the electric control circuit ; and wherein a surface of the electric control circuit and a part of a surface of the semiconductor device is covered with resin while the air flow sensing unit is exposed; characterized in that : at a joint portion on a side of the semiconductor device close to the electric control circuit , the semiconductor device is attached to the lead frame only via an adhesive , wherein the diaphragm is disposed between the spacer and the joint portion. a semiconductor device having an air flow sensing unit and a diaphragm formed thereto; an electric control circuit for controlling the semiconductor device ; a lead frame , to which the semiconductor device and the electric control circuit are mounted; and a spacer , wherein the spacer is disposed in a clearance between the lead frame and the semiconductor device on a side of the semiconductor device opposite from the electric control circuit ; and wherein a surface of the electric control circuit and a part of a surface of the semiconductor device is covered with resin while the air flow sensing unit is exposed; characterized in that : at a joint portion on a side of the semiconductor device close to the electric control circuit , the semiconductor device is attached to the lead frame only via an adhesive , wherein the diaphragm is disposed between the spacer and the joint portion. at a joint portion on a side of the semiconductor device close to the electric control circuit , the semiconductor device is attached to the lead frame only via an adhesive , wherein the diaphragm is disposed between the spacer and the joint portion.
A method for providing location data of a mobile device using a web service , comprising: receiving location data associated with a mobile device, the mobile device operable to transmit a wireless signal including corresponding location data; receiving, by the web service from a client , at least one criterion and a monitoring request comprising a request to monitor the location data associated with the mobile device as compared to the at least one criterion; extracting, by the web service, the at least one received criterion and storing the at least one received criterion in a monitoring configuration file ; determining , by the web service, whether the monitoring configuration file includes at least one unsatisfied criterion; and if the monitoring configuration file includes at least one unsatisfied criterion: receiving additional location data associated with the mobile device; based on the received additional location data, determining whether one of the at least one unsatisfied criterion has been satisfied; and automatically communicating an alert to the client in response to the one of the at least one unsatisfied criterion being satisfied. receiving location data associated with a mobile device, the mobile device operable to transmit a wireless signal including corresponding location data; receiving, by the web service from a client , at least one criterion and a monitoring request comprising a request to monitor the location data associated with the mobile device as compared to the at least one criterion; extracting, by the web service, the at least one received criterion and storing the at least one received criterion in a monitoring configuration file ; determining , by the web service, whether the monitoring configuration file includes at least one unsatisfied criterion; and if the monitoring configuration file includes at least one unsatisfied criterion: receiving additional location data associated with the mobile device; based on the received additional location data, determining whether one of the at least one unsatisfied criterion has been satisfied; and automatically communicating an alert to the client in response to the one of the at least one unsatisfied criterion being satisfied. receiving additional location data associated with the mobile device; based on the received additional location data, determining whether one of the at least one unsatisfied criterion has been satisfied; and automatically communicating an alert to the client in response to the one of the at least one unsatisfied criterion being satisfied.
A method comprising: - determining a gene expression level for the signature genes: AZGP1, FBLN1, ILK, KRT15, MEIS2, MYBPC1, PAGE4, SRD5A2, COL1A1, COL3A1, COL5A2, INHBA, THBS2, VCAN, BGN, BIRC5, and DYRK2, and optionally PDE4 isoforms comprising PDE4D5 and/or PDE4D7, to obtain a subject expression profile for a subject, and further comprising: - classifying the subject as having a good prognosis or a poor prognosis of prostate cancer based on the subject expression profile, wherein the good prognosis predicts an increased likelihood of survival within a predetermined period after initial diagnosis and/or no progression of disease after primary treatment, and the poor prognosis predicts an aggressive disease, a decreased likelihood of survival, and an increased likelihood of biochemical recurrence, clinical recurrence, and/or the presence of local or distant metastases, within a predetermined period after initial diagnosis; and/or - classifying the subject as having or not having a predisposition of prostate cancer that is susceptible to disease progression based on the subject expression profile, wherein the predisposition predicts an aggressive disease, decreased likelihood of survival, and an increased likelihood of biochemical recurrence, clinical recurrence, and/or the presence of local or distant metastases, within a predetermined period after initial diagnosis. - determining a gene expression level for the signature genes: AZGP1, FBLN1, ILK, KRT15, MEIS2, MYBPC1, PAGE4, SRD5A2, COL1A1, COL3A1, COL5A2, INHBA, THBS2, VCAN, BGN, BIRC5, and DYRK2, and optionally PDE4 isoforms comprising PDE4D5 and/or PDE4D7, to obtain a subject expression profile for a subject, - classifying the subject as having a good prognosis or a poor prognosis of prostate cancer based on the subject expression profile, wherein the good prognosis predicts an increased likelihood of survival within a predetermined period after initial diagnosis and/or no progression of disease after primary treatment, and the poor prognosis predicts an aggressive disease, a decreased likelihood of survival, and an increased likelihood of biochemical recurrence, clinical recurrence, and/or the presence of local or distant metastases, within a predetermined period after initial diagnosis; and/or - classifying the subject as having or not having a predisposition of prostate cancer that is susceptible to disease progression based on the subject expression profile, wherein the predisposition predicts an aggressive disease, decreased likelihood of survival, and an increased likelihood of biochemical recurrence, clinical recurrence, and/or the presence of local or distant metastases, within a predetermined period after initial diagnosis.
A method for operating a steam generation system, wherein the steam generation system comprises at least one boiler , wherein the method comprises: • conducting a fuel analysis of a solid fuel and anticipating at least one operation characteristic of the steam generation system at the time when a specific partial quantity of the solid fuel is combusted in a furnace of said at least one boiler of the steam generation system, and • determining at least one adapted setpoint of at least one operation parameter of the steam generation system so as to counteract and/or remedy changes of said at least one operation characteristic caused by the fuel composition of the specific partial quantity of the solid fuel, and characterized in • determining a time when the specific partial quantity of the solid fuel is expected to be conveyed to a pre-combustion fuel processing device and/or the furnace of said at least one boiler of the steam generation system. • conducting a fuel analysis of a solid fuel and anticipating at least one operation characteristic of the steam generation system at the time when a specific partial quantity of the solid fuel is combusted in a furnace of said at least one boiler of the steam generation system, and • determining at least one adapted setpoint of at least one operation parameter of the steam generation system so as to counteract and/or remedy changes of said at least one operation characteristic caused by the fuel composition of the specific partial quantity of the solid fuel, and • determining a time when the specific partial quantity of the solid fuel is expected to be conveyed to a pre-combustion fuel processing device and/or the furnace of said at least one boiler of the steam generation system.
A cooling device for a sublimation section, comprising a reaction kettle provided with a smooth enameled inner wall, a top of the reaction kettle is provided with a gas phase port , a bottom of the reaction kettle is provided with a discharge port , a middle of the reaction kettle is provided with a sublimation gas phase inlet , and a wall of the reaction kettle is further provided with a jacket ; characterized in that : a throttle plate with enameled surface is provided in the reaction kettle , a middle of the throttle plate is provided with a first through hole passed vertically through the throttle plate , and the throttle plate are further provided with several second through holes arranged around the first through hole ; the throttle plate is a hollow plate, and an inner cavity in the throttle plate is connected to the jacket ; a rotating shaft extending downward from the top of the reaction kettle extends vertically downwards into the reaction kettle and passes through the first through hole , and a scraper matching with the throttling plate is provided on a position of the rotating shaft corresponding to an upper side of each throttling plate . a throttle plate with enameled surface is provided in the reaction kettle , a middle of the throttle plate is provided with a first through hole passed vertically through the throttle plate , and the throttle plate are further provided with several second through holes arranged around the first through hole ; the throttle plate is a hollow plate, and an inner cavity in the throttle plate is connected to the jacket ; a rotating shaft extending downward from the top of the reaction kettle extends vertically downwards into the reaction kettle and passes through the first through hole , and a scraper matching with the throttling plate is provided on a position of the rotating shaft corresponding to an upper side of each throttling plate .
A firearm with tubular handguard mounting system comprising: a receiver ; a screw-in type barrel supported by the receiver , the barrel comprising a muzzle end and a breech end threadably engaging a threaded bore in a front end of the receiver; a primary barrel nut threadably engaging the breech end of the barrel, the primary barrel nut abuttingly engaging the front end of the receiver ; a secondary barrel nut assembly threadably engaging the primary barrel nut , the secondary barrel nut assembly including an annular abutment surface abuttingly engaging an external annular flange on the barrel , the external annular flange on the barrel disposed between the primary barrel nut and the annular abutment surface on the secondary barrel nut assembly; and a tubular handguard mounted to the secondary barrel nut assembly and encircling at least part of a length of the barrel . a receiver ; a screw-in type barrel supported by the receiver , the barrel comprising a muzzle end and a breech end threadably engaging a threaded bore in a front end of the receiver; a primary barrel nut threadably engaging the breech end of the barrel, the primary barrel nut abuttingly engaging the front end of the receiver ; a secondary barrel nut assembly threadably engaging the primary barrel nut , the secondary barrel nut assembly including an annular abutment surface abuttingly engaging an external annular flange on the barrel , the external annular flange on the barrel disposed between the primary barrel nut and the annular abutment surface on the secondary barrel nut assembly; and a tubular handguard mounted to the secondary barrel nut assembly and encircling at least part of a length of the barrel .
A method for making a microelectronic or an optoelectronic device (7; 7') including a substrate grown in a first semiconductor material , the method comprises an integration of a microfluidic cooling circuit (2; 2') within the substrate , characterized in that the integration of the microfluidic circuit (2; 2') within the substrate is obtained by steps of: - Growing a second semiconductor within the substrate , said second semiconductor presenting the shape of the microfluidic circuit; and then - Selectively etching said second semiconductor . - Growing a second semiconductor within the substrate , said second semiconductor presenting the shape of the microfluidic circuit; and then - Selectively etching said second semiconductor .
Electrical connector for high frequency data signal transmission comprising: - a housing , wherein the housing comprises a base part defining a first portion of at least one tunnel extending through the housing and a cover part defining a second portion of the at least one tunnel such that the base part and the cover part together form the at least one tunnel , wherein the cover part is riveted and/or welded to the base part , - at least one electrical lead extending through the at least one tunnel , and - two supporting elements being inserted into the at least one tunnel and supporting the at least one electrical lead at a distance from a tunnel wall facing the at least one electrical lead , with the two supporting elements closing off the at least one tunnel at opposite ends and the at least one electrical lead extending through each of the two supporting elements , wherein, in the at least one tunnel , at least a portion of the at least one electrical lead is embedded in a surrounding material having a relative permittivity which is less than 2. - a housing , wherein the housing comprises a base part defining a first portion of at least one tunnel extending through the housing and a cover part defining a second portion of the at least one tunnel such that the base part and the cover part together form the at least one tunnel , wherein the cover part is riveted and/or welded to the base part , - at least one electrical lead extending through the at least one tunnel , and - two supporting elements being inserted into the at least one tunnel and supporting the at least one electrical lead at a distance from a tunnel wall facing the at least one electrical lead , with the two supporting elements closing off the at least one tunnel at opposite ends and the at least one electrical lead extending through each of the two supporting elements ,
A composition comprising at least one thermoplastic polyurethane, at least melamine cyanurate, at least one first phosphorus-containing flame retardant (F1) selected from the group consisting of alkyl esters of phosphoric acid and alkyl esters of phosphonic acid, where the alkyl radicals are selected from C1 to C12 alkyl radicals, and at least one further phosphorus-containing flame retardant (F2) selected from the group consisting of derivatives of phosphinic acid.
A novel electronic cigarette cartridge, comprising a heating zone (1-1) with a front end and a rear end, said heating zone being located at one end of the electronic cigarette cartridge, an empty tube zone (1-3), a filter (1-5) provided at the opposite end of the electronic cigarette cartridge, at the rear end of the empty tube zone, a peripheral paper tube (1-4) and a granule sealing paper (1-6), said granule sealing paper being provided at the front end of the heating zone, and a filter plug (1-2) that is located between the heating zone (1-1) and the empty tube zone (1-3), at the rear end of the heating zone, wherein the peripheral paper tube (1-4) surrounds an outer periphery of each of the heating zone (1-1), an outer periphery of the filter plug (1-2), an outer periphery of the empty tube zone (1-3) and an outer periphery of the filter (1-5); the filter plug (1-2) is provided with a vent channel (2-1); the filter (1-5) is made of cotton; the heating zone (1-1) is filled with granules, the filter plug (1-2) is made of rubber, and the filter plug (1-2) is in an interference fit with an inner wall of the peripheral paper tube (1-4); and both ends of the filter plug (1-2) are provided with chamfers. an empty tube zone (1-3), a filter (1-5) provided at the opposite end of the electronic cigarette cartridge, at the rear end of the empty tube zone, a peripheral paper tube (1-4) and a granule sealing paper (1-6), said granule sealing paper being provided at the front end of the heating zone, and a filter plug (1-2) that is located between the heating zone (1-1) and the empty tube zone (1-3), at the rear end of the heating zone, wherein the peripheral paper tube (1-4) surrounds an outer periphery of each of the heating zone (1-1), an outer periphery of the filter plug (1-2), an outer periphery of the empty tube zone (1-3) and an outer periphery of the filter (1-5); the filter plug (1-2) is provided with a vent channel (2-1); the filter (1-5) is made of cotton; the heating zone (1-1) is filled with granules, the filter plug (1-2) is made of rubber, and the filter plug (1-2) is in an interference fit with an inner wall of the peripheral paper tube (1-4); and both ends of the filter plug (1-2) are provided with chamfers.
A controller for controlling a vehicle driveline , in particular a driveline comprising a hydrostatic transmission , wherein the controller is configured to: output a control command for controlling at least one driveline component , including a working implement, according to a control map , the control map defining a dependence of the control command on at least a control position of an input device ; receive at least one input signal , the input signal comprising a plurality of signal values recorded at different times, wherein the signal values of the at least one input signal are indicative of an operator's handling of the input device , and at least one of: - the control position of the input device , - the at least one first condition of the driveline , and - at least one second condition of the driveline ; derive a feature (27a, 27b, 28a, 28b; 35a, 35b, 36a, 36b) from the plurality of signal values; and adapt the control map based on the derived feature (27a, 27b, 28a, 28b; 35a, 35b, 36a, 36b). output a control command for controlling at least one driveline component , including a working implement, according to a control map , the control map defining a dependence of the control command on at least a control position of an input device ; receive at least one input signal , the input signal comprising a plurality of signal values recorded at different times, wherein the signal values of the at least one input signal are indicative of an operator's handling of the input device , and at least one of: - the control position of the input device , - the at least one first condition of the driveline , and - at least one second condition of the driveline ; an operator's handling of the input device , and at least one of: - the control position of the input device , - the at least one first condition of the driveline , and - at least one second condition of the driveline ; - the control position of the input device , - the at least one first condition of the driveline , and - at least one second condition of the driveline ; derive a feature (27a, 27b, 28a, 28b; 35a, 35b, 36a, 36b) from the plurality of signal values; and adapt the control map based on the derived feature (27a, 27b, 28a, 28b; 35a, 35b, 36a, 36b).