mhurhangee/patent-ind-claim-en huggingface dataset:
A video recording apparatus , comprising: a first demultiplexer , configured to separate program information, audio data, and video data from a transport stream; wherein the program information is used to provide auxiliary information for the audio data and the video data in the transport stream, so as to obtain the audio data and the video data of a channel; a descrambler , configured to descramble the audio data and the video data separated from the transport stream; a marker , configured to: mark the descrambled audio data and the descrambled video data, to obtain marked audio data and marked video data, and transmit a mixed stream to an encryption processor , wherein the mixed stream comprises the program information, the marked audio data, and the marked video data; and the encryption processor , configured to: identify the marked audio data and the marked video data in the mixed stream, encrypt the identified audio data and the identified video data to obtain encrypted audio data and encrypted video data, and transmit the encrypted audio data, the encrypted video data, and the program information to a memory in a rich execution environment, REE for storage; wherein the REE is a rich and open execution environment; wherein the first demultiplexer is in the REE; wherein the descrambler , the marker and the encryption processor are in a trusted execution environment, TEE. a first demultiplexer , configured to separate program information, audio data, and video data from a transport stream; wherein the program information is used to provide auxiliary information for the audio data and the video data in the transport stream, so as to obtain the audio data and the video data of a channel; a descrambler , configured to descramble the audio data and the video data separated from the transport stream; a marker , configured to: mark the descrambled audio data and the descrambled video data, to obtain marked audio data and marked video data, and transmit a mixed stream to an encryption processor , wherein the mixed stream comprises the program information, the marked audio data, and the marked video data; and the encryption processor , configured to: identify the marked audio data and the marked video data in the mixed stream, encrypt the identified audio data and the identified video data to obtain encrypted audio data and encrypted video data, and transmit the encrypted audio data, the encrypted video data, and the program information to a memory in a rich execution environment, REE for storage; wherein the REE is a rich and open execution environment; wherein the first demultiplexer is in the REE; wherein the descrambler , the marker and the encryption processor are in a trusted execution environment, TEE.
A pharmaceutical kit comprising: a) a first composition comprising a gas-filled microvesicle, or a precursor thereof, having a stabilizing envelope comprising a plurality of polymer molecules, said polymer being a polyethylene glycol comprising repeating oxyethylene units, said precursor comprising stabilizing amphiphilic materials in dry powdered form capable of forming said stabilizing envelope upon reconstitution with an aqueous carrier; and b) a second composition comprising a targeting construct, said construct comprising a targeting ligand associated with an anti-polymer antibody capable of selectively binding to said polymer. a) a first composition comprising a gas-filled microvesicle, or a precursor thereof, having a stabilizing envelope comprising a plurality of polymer molecules, said polymer being a polyethylene glycol comprising repeating oxyethylene units, said precursor comprising stabilizing amphiphilic materials in dry powdered form capable of forming said stabilizing envelope upon reconstitution with an aqueous carrier; and b) a second composition comprising a targeting construct, said construct comprising a targeting ligand associated with an anti-polymer antibody capable of selectively binding to said polymer.
Method for operating a magnetic-inductive flow meter, with a magnetic field generating apparatus for generating a magnetic field which permeates a flowing medium, and with a measuring apparatus for determining measured values which represent the field intensity of the electrical field which has been induced by the magnetic field in the flowing medium, wherein the magnetic field generating apparatus comprises at least one electromagnet and one magnetic field conductor which has been penetrated at least partially by the magnetic field and the permeability of the magnetic field conductor is a nonlinear function of the magnetic field intensity, wherein the electromagnet is supplied with at least one first current value and one second current value, and wherein the measuring apparatus determines a first measured value when the electromagnet is supplied with the first current value and a second measured value when the electromagnet is supplied with a second current value, characterized in that a first pair of measured values is formed from the first current value and the first measured value and a second pair of measured values is formed from the second current value and the second measured value, that the correspondence of the pairs of measured values and of the function of permeability is determined and that the noncorrespondence of the pairs of measured values and the function of permeability is signaled, wherein the noncorrespondence is caused by the presence of a parasitic magnetic field at least partially in the magnetic field conductor.
A method for the impregnation of chips during the manufacture of chemical pulp comprising following steps; e) chips are continuously fed without preceding steam treatment to the top of an impregnation vessel where impregnated chips are fed out from the bottom of the vessel, f) hot impregnation fluid (BL) at a first temperature above the boiling point of the hot impregnation fluid is added to the impregnation vessel , via a pipe having the outlet end located below a chip level (CH LEV ) established in the impregnation vessel and at a distance from the walls of the impregnation vessel, preferably in the centre, such that steam is released into the chip volume for steaming the chips, g) the impregnation fluid (BL) added establishes a fluid level (LIQ LEV ) in the impregnation vessel and where the chip level (CH LEV ) lies at least 1-2 meters, preferably 3-5 meters, over the fluid level and where the pressure at the top of the impregnation vessel that is essentially at the level of atmospheric pressure, ±0.5 bar preferably ±0.2 bar, h) that a withdrawal of spent impregnation fluid (REC) for recovery takes place from the vessel at the level of the fluid level (LIQ LEV ), from a withdrawal volume located behind screens mounted in the wall of the impregnation vessel, characterised in that an additional fluid (REC 1 ) at a second temperature above the boiling point of the additional fluid is added into the withdrawal volume and which release steam into the withdrawal volume, which steam is lead in towards the chips below the chip level for steaming the chips. e) chips are continuously fed without preceding steam treatment to the top of an impregnation vessel where impregnated chips are fed out from the bottom of the vessel, f) hot impregnation fluid (BL) at a first temperature above the boiling point of the hot impregnation fluid is added to the impregnation vessel , via a pipe having the outlet end located below a chip level (CH LEV ) established in the impregnation vessel and at a distance from the walls of the impregnation vessel, preferably in the centre, such that steam is released into the chip volume for steaming the chips, g) the impregnation fluid (BL) added establishes a fluid level (LIQ LEV ) in the impregnation vessel and where the chip level (CH LEV ) lies at least 1-2 meters, preferably 3-5 meters, over the fluid level and where the pressure at the top of the impregnation vessel that is essentially at the level of atmospheric pressure, ±0.5 bar preferably ±0.2 bar, h) that a withdrawal of spent impregnation fluid (REC) for recovery takes place from the vessel at the level of the fluid level (LIQ LEV ), from a withdrawal volume located behind screens mounted in the wall of the impregnation vessel,
A method comprising: receiving a single speech input, comprising a first speech input part and a second speech input part from a user with a speech recognition system comprising a microphone , processor and a memory, wherein it comprises: processing the single speech input to generate a hypothesis, wherein the hypothesis is broken into hypothesis parts and, wherein a first hypothesis part corresponds to the first speech input part and a second hypothesis part corresponds to the second speech input part, a confidence score for each hypothesis part being generated by a speech recognition algorithm; determining that each of the first or the second hypothesis parts correspond to a respective expected response part, wherein the expected response parts corresponding to the first and second hypothesis parts having information different and independent from one another; independently comparing each of the first and the second hypothesis parts from the hypothesis with-the respective expected response part; and the method being characterized in that for each of the first and second hypothesis part, if, based on the comparing, the hypothesis part matches the respective expected response part, lowering an acceptance threshold for each hypothesis word in the hypothesis part independently from other hypothesis parts, wherein if the confidence score for the hypothesis part to which the hypothesis word belongs exceeds the acceptance threshold for the hypothesis word, then the hypothesis word is accepted. processing the single speech input to generate a hypothesis, wherein the hypothesis is broken into hypothesis parts and, wherein a first hypothesis part corresponds to the first speech input part and a second hypothesis part corresponds to the second speech input part, a confidence score for each hypothesis part being generated by a speech recognition algorithm; determining that each of the first or the second hypothesis parts correspond to a respective expected response part, wherein the expected response parts corresponding to the first and second hypothesis parts having information different and independent from one another; independently comparing each of the first and the second hypothesis parts from the hypothesis with-the respective expected response part; and the method being characterized in that for each of the first and second hypothesis part, if, based on the comparing, the hypothesis part matches the respective expected response part, lowering an acceptance threshold for each hypothesis word in the hypothesis part independently from other hypothesis parts, wherein if the confidence score for the hypothesis part to which the hypothesis word belongs exceeds the acceptance threshold for the hypothesis word, then the hypothesis word is accepted.
A communication method performed by a user equipment, UE, the communication method comprising: receiving from an eNodeB, eNB, first information for activating a secondary cell, SCell; activating the SCell; starting a first timer associated with the SCell; restarting , in case that second information for the activated SCell is received from the eNB, the first timer associated with the SCell; starting a second timer when downlink or uplink resources are not allocated to the SCell and an activation/deactivation MAC CE indicating reactivation of the SCell is not received before expiration of the first timer; discontinuing from monitoring a physical downlink control channel, PDCCH, on the SCell and from transmitting a sounding reference signal, SRS, on the SCell, when the first timer expires; and discontinuing from transmitting a channel state information, CSI, from a predefined subframe; and deactivating the SCell when the second timer expires. receiving from an eNodeB, eNB, first information for activating a secondary cell, SCell; activating the SCell; starting a first timer associated with the SCell; restarting , in case that second information for the activated SCell is received from the eNB, the first timer associated with the SCell; starting a second timer when downlink or uplink resources are not allocated to the SCell and an activation/deactivation MAC CE indicating reactivation of the SCell is not received before expiration of the first timer; discontinuing from monitoring a physical downlink control channel, PDCCH, on the SCell and from transmitting a sounding reference signal, SRS, on the SCell, when the first timer expires; and discontinuing from transmitting a channel state information, CSI, from a predefined subframe; and deactivating the SCell when the second timer expires.
Lubricating oil composition for automotive transmissions, characterised in that the lubricating oil composition contains: (A), as a base oil, a GTL low-viscosity base oil, kinematic viscosity 2mm 2 /s to 5mm 2 /s at 100°C, in the amount of 60 to 93% by mass based on the total mass of the lubricating oil composition and (B) a Group 1 high-viscosity base oil, kinematic viscosity 30mm 2 /s to 35mm 2 /s at 100°C, in the amount of 2 to 20% by mass based on the total mass of the lubricating oil composition, and in addition (C) the content of the polymeric compound which constitutes the viscosity index improver is 0 to 1.0% by mass based on the total mass of the lubricating oil composition, (D) the pour point is -50°C or below, the Brookfield viscosity at -40°C being not more than 10,000mPa·s, (E) the EHD oil film thickness at 60°C and 3.0m/s is not less than 15% as a ratio of the oil film thickness of a polyalphaolefin, kinematic viscosity 4.0mm 2 /s at 100°C, measured under the same conditions, (F) the kinematic viscosity at 100°C is 4mm 2 /s to 6mm 2 /s, (G) the kinematic viscosity at 40°C is 20mm 2 /s to 30mm 2 /s and wherein the lubricating oil composition contains 0.10 to 0.20% by mass in terms of phosphorus content of a phosphorus-based additive, based on the total mass of the lubricating oil composition. (A), as a base oil, a GTL low-viscosity base oil, kinematic viscosity 2mm 2 /s to 5mm 2 /s at 100°C, in the amount of 60 to 93% by mass based on the total mass of the lubricating oil composition and (B) a Group 1 high-viscosity base oil, kinematic viscosity 30mm 2 /s to 35mm 2 /s at 100°C, in the amount of 2 to 20% by mass based on the total mass of the lubricating oil composition, and in addition (C) the content of the polymeric compound which constitutes the viscosity index improver is 0 to 1.0% by mass based on the total mass of the lubricating oil composition, (D) the pour point is -50°C or below, the Brookfield viscosity at -40°C being not more than 10,000mPa·s, (E) the EHD oil film thickness at 60°C and 3.0m/s is not less than 15% as a ratio of the oil film thickness of a polyalphaolefin, kinematic viscosity 4.0mm 2 /s at 100°C, measured under the same conditions, (F) the kinematic viscosity at 100°C is 4mm 2 /s to 6mm 2 /s, (G) the kinematic viscosity at 40°C is 20mm 2 /s to 30mm 2 /s and wherein the lubricating oil composition contains 0.10 to 0.20% by mass in terms of phosphorus content of a phosphorus-based additive, based on the total mass of the lubricating oil composition.
A polymer comprising a repeating unit represented by general formula : wherein n and m are integers greater than or equal to 1; min((LUMO(E1)-HOMO(E2), LUMO(E2)-HOMO(E1)) ≤ min(E T (E1), E T (E2)) + 0.1 eV, wherein LUMO(E1), HOMO(E1), and E T (E1) are energy levels of a lowest unoccupied molecular orbital, a highest occupied molecular orbital, and a triplet excited state of E1-hydrogen, respectively; LUMO(E2), HOMO(E2), and E T (E2) are energy levels of a lowest unoccupied molecular orbital, a highest occupied molecular orbital, and a triplet excited state of E2-hydrogen, respectively; wherein the values of HOMO, LUMO and E T are simulation based on Time-dependent DFT; characterized in that the E1 group consists of at least one of structural units containing the following structural formulas: and the E2 group consists of least one of structural units containing the following structural formulas: wherein n and m are integers greater than or equal to 1; min((LUMO(E1)-HOMO(E2), LUMO(E2)-HOMO(E1)) ≤ min(E T (E1), E T (E2)) + 0.1 eV, wherein LUMO(E1), HOMO(E1), and E T (E1) are energy levels of a lowest unoccupied molecular orbital, a highest occupied molecular orbital, and a triplet excited state of E1-hydrogen, respectively; LUMO(E2), HOMO(E2), and E T (E2) are energy levels of a lowest unoccupied molecular orbital, a highest occupied molecular orbital, and a triplet excited state of E2-hydrogen, respectively; wherein the values of HOMO, LUMO and E T are simulation based on Time-dependent DFT; characterized in that the E1 group consists of at least one of structural units containing the following structural formulas: and the E2 group consists of least one of structural units containing the following structural formulas:
A detector , comprising: a plurality of pixels , wherein the detector is configured to count numbers of X-ray photons that are incident on each pixel of the plurality of pixels and whose energies fall in a plurality of bins, within a period of time; a guard ring (115; 211; 212) comprising a plurality of segments, wherein the detector is configured to detect charge carriers collected by the segments; the detector being characterized in further comprising a controller (336; 346) configured to detect charge sharing between at least one pixel of the plurality of pixels and at least one segment of the guard ring. a plurality of pixels , wherein the detector is configured to count numbers of X-ray photons that are incident on each pixel of the plurality of pixels and whose energies fall in a plurality of bins, within a period of time; a guard ring (115; 211; 212) comprising a plurality of segments, wherein the detector is configured to detect charge carriers collected by the segments; the detector being characterized in further comprising a controller (336; 346) configured to detect charge sharing between at least one pixel of the plurality of pixels and at least one segment of the guard ring.
A method for obtaining information of a test substance, wherein the test substance is a cell, a polypeptide, a protein, a nucleic acid, an exosome, or a carbohydrate chain, the method comprising: forming a complex by causing a capture substance to bind to a test substance in a specimen, wherein the capture substance includes a capture substance capable of binding to a base plate; selectively collecting at least the complex from the specimen, wherein in the collecting of the complex from the specimen, the complex is separated from an impurity on the basis of at least one of a difference in specific gravity, a difference in size, a difference in electrical property, and a difference in immunoreaction between the complex and the impurity, whereby impurities such as substrates other than the test substance contained in the specimen and the capture substance that has not formed the complex are separated from the complex and are suppressed from being transferred to the base plate; immobilizing the complex collected from the specimen, onto the base plate; and obtaining information regarding a structure of the test substance from the complex immobilized on the base plate, wherein the obtaining of the information regarding the structure of the test substance is performed by means of a microscope. forming a complex by causing a capture substance to bind to a test substance in a specimen, wherein the capture substance includes a capture substance capable of binding to a base plate; selectively collecting at least the complex from the specimen, wherein in the collecting of the complex from the specimen, the complex is separated from an impurity on the basis of at least one of a difference in specific gravity, a difference in size, a difference in electrical property, and a difference in immunoreaction between the complex and the impurity, whereby impurities such as substrates other than the test substance contained in the specimen and the capture substance that has not formed the complex are separated from the complex and are suppressed from being transferred to the base plate; immobilizing the complex collected from the specimen, onto the base plate; and obtaining information regarding a structure of the test substance from the complex immobilized on the base plate, wherein the obtaining of the information regarding the structure of the test substance is performed by means of a microscope.
A method of wireless communication performed by a user equipment, UE, the method comprising: establishing at least one of first and second communication links with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of the first communication link to at least a second cell; determining a value of a power control parameter and/or a timing parameter associated with the second communication link after the handover of the first communication link is performed, wherein the determining the value of the parameter is based on a value of the parameter associated with the second communication link prior to the handover; maintaining a transmit power control setting and/or a timing advance setting associated with the second communication link when the handover of the first communication link is performed; and performing a configuration operation, wherein the configuration operation includes adjusting at least one of the transmit power control setting and/or the timing advance setting associated with the second communication link after the handover of the first communication link is performed, wherein the adjustment is based on an offset from the determined power control parameter and/or a timing parameter. establishing at least one of first and second communication links with at least a first cell, the first communication link for receiving transmissions and the second communication link for sending transmissions; performing a handover of the first communication link to at least a second cell; determining a value of a power control parameter and/or a timing parameter associated with the second communication link after the handover of the first communication link is performed, wherein the determining the value of the parameter is based on a value of the parameter associated with the second communication link prior to the handover; maintaining a transmit power control setting and/or a timing advance setting associated with the second communication link when the handover of the first communication link is performed; and performing a configuration operation, wherein the configuration operation includes adjusting at least one of the transmit power control setting and/or the timing advance setting associated with the second communication link after the handover of the first communication link is performed, wherein the adjustment is based on an offset from the determined power control parameter and/or a timing parameter.