mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving (S305), at a wireless network, from a mobile device , a location update request for a location area to which access by the mobile device is restricted; determining, at the wireless network, if no location information is sent in the location update request, or if the mobile device is traveling from another wireless network, that the mobile device is not recognised; obtaining subscriber information relating to the mobile device from a home location register in the event the mobile device is not recognised; sending, from the wireless network, to the mobile device , in response to the location update request, a communication that triggers (S410) the mobile device to update (S415) a location identifier stored at the mobile device to the location identifier for the restricted location area ; determining, using the obtained subscriber information, that the mobile device is not authorised to roam in the location area ; sending (S325; S715), from the wireless network, a location update reject message to the mobile device; wherein the triggering communication is sent before the location update reject message is sent; the wireless network comprising at least one of a mobile switching center and/or visitor location register , a first base station , and a second base station . receiving (S305), at a wireless network, from a mobile device , a location update request for a location area to which access by the mobile device is restricted; determining, at the wireless network, if no location information is sent in the location update request, or if the mobile device is traveling from another wireless network, that the mobile device is not recognised; obtaining subscriber information relating to the mobile device from a home location register in the event the mobile device is not recognised; sending, from the wireless network, to the mobile device , in response to the location update request, a communication that triggers (S410) the mobile device to update (S415) a location identifier stored at the mobile device to the location identifier for the restricted location area ; determining, using the obtained subscriber information, that the mobile device is not authorised to roam in the location area ; sending (S325; S715), from the wireless network, a location update reject message to the mobile device; wherein the triggering communication is sent before the location update reject message is sent; the wireless network comprising at least one of a mobile switching center and/or visitor location register , a first base station , and a second base station .
Cable winch having the following features: a receiving unit for accommodating a cable drum that includes a cable wound about an axle of the cable drum , wherein the receiving unit has a quick mounting mechanism for attaching the cable drum in a manually detachable manner to the cable winch ; and a drive unit having at least one driving pulley , wherein the drive unit is positioned ahead of the receiving unit in a winding direction of the cable onto the cable drum and is designed to provide at least a proportion of a pulling force for raising a load by means of the cable , and wherein the drive unit is designed to receive a free cable end of the cable from the cable drum and to guide the cable , and wherein a cable ball is attached to the free cable end and a diameter of the cable ball is more than twice the diameter of the cable . a receiving unit for accommodating a cable drum that includes a cable wound about an axle of the cable drum , wherein the receiving unit has a quick mounting mechanism for attaching the cable drum in a manually detachable manner to the cable winch ; and a drive unit having at least one driving pulley , wherein the drive unit is positioned ahead of the receiving unit in a winding direction of the cable onto the cable drum and is designed to provide at least a proportion of a pulling force for raising a load by means of the cable , and wherein the drive unit is designed to receive a free cable end of the cable from the cable drum and to guide the cable , and wherein a cable ball is attached to the free cable end and a diameter of the cable ball is more than twice the diameter of the cable .
A method for transmitting data, wherein the method comprises: acquiring (S101) in a base station a data set to be sent to a wireless user equipment, UE; determining (S102), by the base station according to a status of the UE that receives the data set, a transmission mode for transmitting the data set, wherein when the determined transmission mode is the same as an original transmission mode and the status of the UE changes, or when the determined transmission mode is different from an original transmission mode, configuring a transmission channel to the UE according to the determined transmission mode; wherein the transmission mode comprises a unicast mode or a multicast mode; and if a quantity of UEs that receive the data set is not less than a preset threshold, and a channel quality difference between multiple UEs that receive the data set is less than a second preset threshold, determining that the transmission mode for transmitting the data set is the multicast mode; or if a quantity of UEs that receive the data set is less than a preset threshold and a channel quality difference between multiple UEs that receive the data set is not less than a second preset threshold, determining that the transmission mode for transmitting the data set is the unicast mode, sending the data set to the UE by using the transmission channel that corresponds to the determined transmission mode. acquiring (S101) in a base station a data set to be sent to a wireless user equipment, UE; determining (S102), by the base station according to a status of the UE that receives the data set, a transmission mode for transmitting the data set, wherein when the determined transmission mode is the same as an original transmission mode and the status of the UE changes, or when the determined transmission mode is different from an original transmission mode, configuring a transmission channel to the UE according to the determined transmission mode; wherein the transmission mode comprises a unicast mode or a multicast mode; and if a quantity of UEs that receive the data set is not less than a preset threshold, and a channel quality difference between multiple UEs that receive the data set is less than a second preset threshold, determining that the transmission mode for transmitting the data set is the multicast mode; or if a quantity of UEs that receive the data set is less than a preset threshold and a channel quality difference between multiple UEs that receive the data set is not less than a second preset threshold, determining that the transmission mode for transmitting the data set is the unicast mode, sending the data set to the UE by using the transmission channel that corresponds to the determined transmission mode.
A flexible polyurethane elastomeric composition for coating a substrate, said composition comprising the reaction product of: (A) an isocyanate component in an amount of 30 to 60 wt.-%, based on the total weight of all components used to form the polyurethane elastomeric composition; and (B) an isocyanate-reactive component comprising a polydiene polyol present in the isocyanate-reactive component in an amount of greater than 0 and less than 95 parts by weight based on 100 parts by weight of said isocyanate-reactive component and having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol. (A) an isocyanate component in an amount of 30 to 60 wt.-%, based on the total weight of all components used to form the polyurethane elastomeric composition; and (B) an isocyanate-reactive component comprising a polydiene polyol present in the isocyanate-reactive component in an amount of greater than 0 and less than 95 parts by weight based on 100 parts by weight of said isocyanate-reactive component and having an average hydroxy functionality of no greater than 3 and a number average molecular weight of from 1000 to less than 2000 g/mol.
A magnetometer for measuring an unknown external magnetic field (B_E) using optically detected magnetic resonance (ODMR), comprising: a) a solid state material comprising an ensemble of paramagnetic defects, the paramagnetic defects being optically active, b) an optical cavity surrounding the solid state material, the optical cavity being optically excitable (Γ P ) by an irradiation laser arranged therefor, c) a coupling structure being arranged for electromagnetic coupling to said solid state material, the coupling structure being arranged for substantially homogenous radio frequency and/or microwave excitation (Ω) of the paramagnetic defects, and d) a magnetic source providing a substantially constant, directional magnetic field (B_C) within the said solid state material, said constant directional magnetic field being sufficient to cause a Zeeman splitting of the energy levels in said paramagnetic defects, wherein a probing volume (PV) in the solid state material is defined by the spatially overlapping volume of: 1) the excitation of the paramagnetic defects by the irradiation laser , 2) the coupling structure configured to excite the same paramagnetic defects defined in step 1), and 3) the constant directional magnetic field (B_C) wherein the magnetometer is configured to measure the external magnetic field (B_E) by detecting emission from the paramagnetic defects in the probing volume (PV) by utilising the double excitation of the said excitation of the paramagnetic defects by the irradiation laser, and the said coupling structure exciting the same paramagnetic defects. a) a solid state material comprising an ensemble of paramagnetic defects, the paramagnetic defects being optically active, b) an optical cavity surrounding the solid state material, the optical cavity being optically excitable (Γ P ) by an irradiation laser arranged therefor, c) a coupling structure being arranged for electromagnetic coupling to said solid state material, the coupling structure being arranged for substantially homogenous radio frequency and/or microwave excitation (Ω) of the paramagnetic defects, and d) a magnetic source providing a substantially constant, directional magnetic field (B_C) within the said solid state material, said constant directional magnetic field being sufficient to cause a Zeeman splitting of the energy levels in said paramagnetic defects, 1) the excitation of the paramagnetic defects by the irradiation laser , 2) the coupling structure configured to excite the same paramagnetic defects defined in step 1), and 3) the constant directional magnetic field (B_C)
A method of making a population of cells that express a chimeric antigen receptor (CAR), the method comprising: (i) contacting a population of cells with an agent that stimulates a CD3/TCR complex and/or an agent that stimulates a costimulatory molecule on the surface of the cells; (ii) contacting the population of cells with a nucleic acid molecule encoding the CAR, thereby providing a population of cells comprising the nucleic acid molecule, and (iii) harvesting the population of cells for storage or administration, wherein step (ii) is performed together with step (i) or no later than 20 hours after the beginning of step (i), and step (iii) is performed no later than 30 hours after the beginning of step (i). (i) contacting a population of cells with an agent that stimulates a CD3/TCR complex and/or an agent that stimulates a costimulatory molecule on the surface of the cells; (ii) contacting the population of cells with a nucleic acid molecule encoding the CAR, thereby providing a population of cells comprising the nucleic acid molecule, and (iii) harvesting the population of cells for storage or administration,
An impact protection apparatus for an aerial vehicle, the apparatus comprising: a plurality of inflatable members configured to be selectively inflatable to reduce forces experienced by the aerial vehicle during an impact, wherein a first inflatable member of the plurality of inflatable members is disposed on a first side of the aerial vehicle when being inflated and wherein a second inflatable member of the plurality of inflatable members is disposed on a second side of the aerial vehicle when being inflated, the first and second sides being different sides of the aerial vehicle; a control mechanism configured to cause compressed gas to flow into one or more inflatable members of the plurality of inflatable members in response to a signal indicative of a detected state of the aerial vehicle, wherein the detected state of the aerial vehicle is a malfunction of the aerial vehicle; one or more sensors configured to collect data to predict from which direction the aerial vehicle will likely experience the impact; and a controller in communication with the one or more sensors and the control mechanism, wherein the controller is configured to control the control mechanism to selectively inflate the first and/or second inflatable member of the plurality of inflatable members based on the data collected by the one or more sensors. a plurality of inflatable members configured to be selectively inflatable to reduce forces experienced by the aerial vehicle during an impact, wherein a first inflatable member of the plurality of inflatable members is disposed on a first side of the aerial vehicle when being inflated and wherein a second inflatable member of the plurality of inflatable members is disposed on a second side of the aerial vehicle when being inflated, the first and second sides being different sides of the aerial vehicle; a control mechanism configured to cause compressed gas to flow into one or more inflatable members of the plurality of inflatable members in response to a signal indicative of a detected state of the aerial vehicle, wherein the detected state of the aerial vehicle is a malfunction of the aerial vehicle; one or more sensors configured to collect data to predict from which direction the aerial vehicle will likely experience the impact; and a controller in communication with the one or more sensors and the control mechanism, wherein the controller is configured to control the control mechanism to selectively inflate the first and/or second inflatable member of the plurality of inflatable members based on the data collected by the one or more sensors.
A method for monitoring fan blades for a gas turbine engine, comprising: receiving, by a controller , a signal from a pressure sensor , the pressure sensor located downstream from the fan blades; calculating, by the controller , a first bandpass signal based on the signal; calculating, by the controller , a second bandpass signal based on the signal; performing, by the controller , a time frequency analysis on the first bandpass signal and the second bandpass signal to calculate a first power level of the first bandpass signal and a second power level of the second bandpass signal; and determining, by the controller , a change in at least one of a magnitude of the first power level and a magnitude of the second power level, characterized in that : the second bandpass signal comprises a higher frequency than the first bandpass signal. receiving, by a controller , a signal from a pressure sensor , the pressure sensor located downstream from the fan blades; calculating, by the controller , a first bandpass signal based on the signal; calculating, by the controller , a second bandpass signal based on the signal; performing, by the controller , a time frequency analysis on the first bandpass signal and the second bandpass signal to calculate a first power level of the first bandpass signal and a second power level of the second bandpass signal; and determining, by the controller , a change in at least one of a magnitude of the first power level and a magnitude of the second power level,
A method programmed in a non-transitory memory of a device comprising: a. acquiring a base layer image; b. applying a region of interest scalability implementation on part of an enhancement layer image wherein the part of the enhancement layer image is less than the full enhancement layer image; and c. acquiring the enhancement layer image; wherein the region of interest scalability implementation includes signaling a region of interest with a supplemental enhancement information message to manipulate an encoder; when the supplemental enhancement information message is signaled, the encoder encodes the non-significant coding tree units of the enhancement layer in a bitstream wherein all non-significant coding tree units of the enhancement layer, each non-significant coding tree unit being a coding tree unit which is not defined in a region of interest, are copied from a co-located coding tree unit in the base layer for signal-to-noise ratio scalability or from a co-located coding tree unit in an up-sampled base layer for spatial scalability, and encodes the significant coding tree units of the enhancement layer in a bitstream wherein all significant coding tree units of the enhancement layer, each significant coding tree unit being a coding tree unit which is defined within a region of interest, are encoded using the enhancement layer.. a. acquiring a base layer image; b. applying a region of interest scalability implementation on part of an enhancement layer image wherein the part of the enhancement layer image is less than the full enhancement layer image; and c. acquiring the enhancement layer image; wherein
A device for administering carbon monoxide for a determination of the hemoglobin amount of a patient comprising: a closed gas volume ; a gas outlet comprising a mouth piece , wherein the mouth piece is configured to enable inhalation and exhalation of gas into and out of the closed gas volume ; a means for carbon monoxide supply into the closed gas volume ; wherein the means for carbon monoxide supply comprises a carbon monoxide reservoir with a volume which is provided with sensors for the determination of temperature and pressure of the carbon monoxide in the carbon monoxide reservoir , wherein the means for carbon monoxide supply is configured to supply a defined amount of carbon monoxide into the closed gas volume , wherein the device is adapted to determine the defined amount of carbon monoxide based on the volume of the carbon monoxide reservoir and the temperature and pressure of the carbon monoxide in the carbon monoxide reservoir determined by the sensors . a closed gas volume ; a gas outlet comprising a mouth piece , wherein the mouth piece is configured to enable inhalation and exhalation of gas into and out of the closed gas volume ; a means for carbon monoxide supply into the closed gas volume ; wherein the means for carbon monoxide supply comprises a carbon monoxide reservoir with a volume which is provided with sensors for the determination of temperature and pressure of the carbon monoxide in the carbon monoxide reservoir , wherein the means for carbon monoxide supply is configured to supply a defined amount of carbon monoxide into the closed gas volume , wherein the device is adapted to determine the defined amount of carbon monoxide based on the volume of the carbon monoxide reservoir and the temperature and pressure of the carbon monoxide in the carbon monoxide reservoir determined by the sensors .
A film cartridge installable into and removable from a layer transfer device for transferring a transfer layer (F22) onto a toner image formed on a sheet (S), the film cartridge comprising: a supply reel including a supply shaft on which a multilayer film (F) including a supported layer (F2) with the transfer layer (F22) included therein and a supporting layer (F1) supporting the supported layer (F2) is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film (F), characterized in that the multilayer film (F) is wound on the supply shaft in such a manner that the supported layer (F2) is in contact with the supply shaft , and the multilayer film (F) is wound on the take-up shaft in such a manner that the supported layer (F2) is in contact with the take-up shaft . a supply reel including a supply shaft on which a multilayer film (F) including a supported layer (F2) with the transfer layer (F22) included therein and a supporting layer (F1) supporting the supported layer (F2) is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film (F), characterized in that the multilayer film (F) is wound on the supply shaft in such a manner that the supported layer (F2) is in contact with the supply shaft , and the multilayer film (F) is wound on the take-up shaft in such a manner that the supported layer (F2) is in contact with the take-up shaft .
An edge-emitting ridge laser diode comprising: a semiconductor heterostructure having an active layer sandwiched between an n-type layer (16_1, 16_2) and a p-type layer (12_1, 12_2), wherein the active layer is influenced by a ridge structure to form a gain medium of width W; a back reflector of reflectivity R b formed on a first side facet of the semiconductor heterostructure and a front reflector of reflectivity R f formed on a second side facet of the semiconductor heterostructure, wherein the front and back reflectors are spaced apart to form a cavity of length L containing at least a part of the active layer, which thus forms the gain medium with an internal loss α i , wherein the width W: 1 μm ≤ W ≤ 2 μm; wherein the cavity length L: 100 μm ≤ L ≤ 600 μm; wherein the internal loss α i : 0 cm -1 ≤ α i ≤ 30 cm -1 ; wherein the back reflectivity R b : 100 ≥ R b ≥ 80%; and wherein the front reflectivity R f : 100 ≥ R f ≥ 80%, wherein the laser diode is configured to have a characteristic slope efficiency of less than 0.5 mW/mA, where slope efficiency is the ratio of output optical power to input electrical current, and an electrical power consumption below 150 mW in an output power range of up to 1 mW. a semiconductor heterostructure having an active layer sandwiched between an n-type layer (16_1, 16_2) and a p-type layer (12_1, 12_2), wherein the active layer is influenced by a ridge structure to form a gain medium of width W; a back reflector of reflectivity R b formed on a first side facet of the semiconductor heterostructure and a front reflector of reflectivity R f formed on a second side facet of the semiconductor heterostructure, wherein the front and back reflectors are spaced apart to form a cavity of length L containing at least a part of the active layer, which thus forms the gain medium with an internal loss α i , wherein the width W: 1 μm ≤ W ≤ 2 μm; wherein the cavity length L: 100 μm ≤ L ≤ 600 μm; wherein the internal loss α i : 0 cm -1 ≤ α i ≤ 30 cm -1 ; wherein the back reflectivity R b : 100 ≥ R b ≥ 80%; and wherein the front reflectivity R f : 100 ≥ R f ≥ 80%, wherein the laser diode is configured to have a characteristic slope efficiency of less than 0.5 mW/mA, where slope efficiency is the ratio of output optical power to input electrical current, and an electrical power consumption below 150 mW in an output power range of up to 1 mW.
A fiber optical transceiver comprising: a package ; a plurality of lead frames provided with the package and protruding outward from the package ; a first circuit board installed in the package and electrically connected to the plurality of lead frames ; and an optical element provided on the first circuit board , characterized in that at least a portion of the package is a ceramic portion formed of ceramic and covered with a metallized film (M), which is formed by forming a metal film on a surface of the ceramic portion of the package . a package ; a plurality of lead frames provided with the package and protruding outward from the package ; a first circuit board installed in the package and electrically connected to the plurality of lead frames ; and an optical element provided on the first circuit board , characterized in that at least a portion of the package is a ceramic portion formed of ceramic and covered with a metallized film (M), which is formed by forming a metal film on a surface of the ceramic portion of the package .