mhurhangee/patent-ind-claim-en huggingface dataset:
A method for temporarily switching an uplink transmission mode in a single user multiple input communication characterized by : acquiring , by a user terminal in the single user multiple input communication, control information from a network element indicating that an uplink transmission mode is to be switched for a predetermined period between an uplink transmission mode wherein a demodulation reference signal is precoded and another uplink transmission mode wherein a demodulation reference signal is non-precoded, wherein each of the uplink transmission modes further determines an uplink transmission method, wherein the uplink transmission method denotes a way in which user data together with control data is transmitted from the user terminal to the network element , wherein the control information includes which uplink transmission mode is to be switched on; and applying a dynamic uplink transmission mode switch by switching the uplink transmission mode dynamically according to the control information. acquiring , by a user terminal in the single user multiple input communication, control information from a network element indicating that an uplink transmission mode is to be switched for a predetermined period between an uplink transmission mode wherein a demodulation reference signal is precoded and another uplink transmission mode wherein a demodulation reference signal is non-precoded, wherein each of the uplink transmission modes further determines an uplink transmission method, wherein the uplink transmission method denotes a way in which user data together with control data is transmitted from the user terminal to the network element , wherein the control information includes which uplink transmission mode is to be switched on; and applying a dynamic uplink transmission mode switch by switching the uplink transmission mode dynamically according to the control information.
A dental curable composition comprising: a polymerizable monomer, inorganic particles (A), and inorganic particles (B), wherein the inorganic particles (A) have a volume-median particle size of more than or equal to 0.1 μm and less than or equal to 0.9 μm and are surface-treated with a compound expressed by a general formula where R 1 is a hydrogen atom or a methyl group, R 2 is a hydrolyzable group, R 3 is a hydrocarbon group having 1 to 6 carbon atoms, p is 2 or 3, and q is an integer greater than or equal to 8 and smaller than or equal to 13, wherein the inorganic particles (B) have an average primary particle size of more than or equal to 5 nm and less than or equal to 50 nm, where at least one of a group expressed by a general formula where R 4 and R 5 are independently a methyl group or an ethyl group and a group expressed by a general formula where R 6 , R 7 , and R 8 are independently a methyl group or an ethyl group is present at surfaces of the inorganic particles (B), and wherein a ratio of a mass of the inorganic particles (B) to a total mass of the inorganic particles (A) and the inorganic particles (B) is more than or equal to 0.02 and less than or equal to 0.05. a polymerizable monomer, inorganic particles (A), and inorganic particles (B), wherein the inorganic particles (A) have a volume-median particle size of more than or equal to 0.1 μm and less than or equal to 0.9 μm and are surface-treated with a compound expressed by a general formula where R 1 is a hydrogen atom or a methyl group, R 2 is a hydrolyzable group, R 3 is a hydrocarbon group having 1 to 6 carbon atoms, p is 2 or 3, and q is an integer greater than or equal to 8 and smaller than or equal to 13, wherein the inorganic particles (B) have an average primary particle size of more than or equal to 5 nm and less than or equal to 50 nm, where at least one of a group expressed by a general formula where R 4 and R 5 are independently a methyl group or an ethyl group and a group expressed by a general formula where R 6 , R 7 , and R 8 are independently a methyl group or an ethyl group is present at surfaces of the inorganic particles (B), and wherein a ratio of a mass of the inorganic particles (B) to a total mass of the inorganic particles (A) and the inorganic particles (B) is more than or equal to 0.02 and less than or equal to 0.05.
A plug part for producing an optical and/or electrical plug-in connection with a mating plug part by plugging together the plug part with the mating plug part in at least one plug-assembly direction , wherein the plug part has a plug part housing and at least one optical and/or electrical contact and a resilient opening pretensioning element which acts in a direction parallel to the plug-assembly direction and an opening element for opening a flap on the mating plug part , wherein the opening element in or on the plug part housing in directions parallel to the plug-assembly direction is mounted displaceably relative to the plug part housing and is pretensioned by the opening pretensioning element in one of these directions parallel to the plug-assembly direction , characterised in that the opening element is designed as a one-piece body and has a first contact face for the opening pretensioning element and a second contact face for opening the flap of the mating plug part .
An array camera module , comprising at least two optical lenses and a circuit board assembly , wherein the circuit board assembly further comprises: at least one circuit board ; at least two photosensitive chips , wherein each of the photosensitive chips is conductively connected to the circuit board respectively, and each of the optical lenses is held in a photosensitive path of each of the photosensitive chips respectively; and at least one electronic component , wherein each of the electronic components is conductively connected to the circuit board respectively, and at least one of the electronic components is located on a back face of the circuit board ; wherein the circuit board assembly comprises at least one embedding portion bonded to the back face of the circuit board integrally; wherein the circuit board has at least one through-hole shaped accommodation space , wherein at least one of the photosensitive chips is attached to the front face of the circuit board, and at least one of the photosensitive chips is attached to the embedding portion via the accommodation space of the circuit board, wherein a part of the embedding portion is exposed to the accommodation space of the circuit board. at least one circuit board ; at least two photosensitive chips , wherein each of the photosensitive chips is conductively connected to the circuit board respectively, and each of the optical lenses is held in a photosensitive path of each of the photosensitive chips respectively; and at least one electronic component , wherein each of the electronic components is conductively connected to the circuit board respectively, and at least one of the electronic components is located on a back face of the circuit board ; wherein the circuit board assembly comprises at least one embedding portion bonded to the back face of the circuit board integrally; wherein the circuit board has at least one through-hole shaped accommodation space , wherein at least one of the photosensitive chips is attached to the front face of the circuit board, and at least one of the photosensitive chips is attached to the embedding portion via the accommodation space of the circuit board, wherein a part of the embedding portion is exposed to the accommodation space of the circuit board.
An apparatus of a high-efficiency, HE, access point , AP, the apparatus comprising: memory ; and processing circuitry coupled to the memory , the processing circuitry configured to: encode a HE physical layer convergence procedure, PLCP, protocol data unit, PPDU, the HE PPDU comprising a multi-user, MU, request-to-send, RTS, trigger frame , the MU-RTS trigger frame comprising a type field , wherein a value of the type field indicates that the MU-RTS trigger frame is a trigger frame of type MU-RTS, wherein the MU-RTS trigger frame further comprises a plurality of HE station information fields , wherein each of the plurality of HE station information fields comprises an association identification, AID, field and an indication of a bandwidth of a clear-to-send, CTS, frame, wherein the MU-RTS trigger frame indicates that a HE station identified by the AID field is to transmit the CTS frame with the bandwidth, and generate signaling to cause the HE AP to wirelessly transmit the HE PPDU, and characterized in that : the MU-RTS trigger frame further comprises a common field including information common to the HE stations identified by the AID fields , the common field including a medium checking rule to be applied by the identified HE stations. encode a HE physical layer convergence procedure, PLCP, protocol data unit, PPDU, the HE PPDU comprising a multi-user, MU, request-to-send, RTS, trigger frame , the MU-RTS trigger frame comprising a type field , wherein a value of the type field indicates that the MU-RTS trigger frame is a trigger frame of type MU-RTS, wherein the MU-RTS trigger frame further comprises a plurality of HE station information fields , wherein each of the plurality of HE station information fields comprises an association identification, AID, field and an indication of a bandwidth of a clear-to-send, CTS, frame, wherein the MU-RTS trigger frame indicates that a HE station identified by the AID field is to transmit the CTS frame with the bandwidth, and generate signaling to cause the HE AP to wirelessly transmit the HE PPDU, and characterized in that : the MU-RTS trigger frame further comprises a common field including information common to the HE stations identified by the AID fields , the common field including a medium checking rule to be applied by the identified HE stations.
A fill level radar for continuous fill level measurement, comprising: a radar arrangement , configured to generate and emit a radar signal to the surface of a filling material, an impedance spectroscopy arrangement , setup for detecting adhesion to the radar arrangement or a gas phase of the filling material by means of impedance spectroscopy, wherein the radar arrangement comprises an antenna which is set up to emit the radar signal to the surface of the filling material, characterized in that the impedance spectroscopy arrangement comprises a ring-shaped, strip-shaped or cross-shaped measurement sensor , which is integrated in the antenna. a radar arrangement , configured to generate and emit a radar signal to the surface of a filling material, an impedance spectroscopy arrangement , setup for detecting adhesion to the radar arrangement or a gas phase of the filling material by means of impedance spectroscopy, wherein the radar arrangement comprises an antenna which is set up to emit the radar signal to the surface of the filling material, characterized in that the impedance spectroscopy arrangement comprises a ring-shaped, strip-shaped or cross-shaped measurement sensor , which is integrated in the antenna.
System for determining a filling level of a fuel situated in a fuel tank, wherein the system has an electromotively driven air pump , at least one valve, a pressure sensor, a control unit and a timing element , wherein the control unit actuates the valve such that the fuel tank is closed in pressure-tight fashion, and the control unit actuates the air pump such that the pressure in the fuel tank increases until an upper threshold is reached, and the timing element determines the time until the pressure has reached the upper threshold, and the filling level of the fuel situated in the fuel tank is determined from the time taken to reach the upper threshold, characterized in that fresh air is forced into an accumulator element provided for temporarily storing hydrocarbons by means of the air pump , and in that the control unit actuates the air pump at the same operating point for every determination of the filling level.
A system for adapting power usage of a mobile unit that is configured to communicate data to a base unit , the system comprising: said mobile unit , said base unit , and an analysis unit ; wherein said mobile unit is configured to provide transmission power information to said analysis unit , wherein said transmission power information corresponds to a transmission power needed by said mobile unit as a function of time; wherein said analysis unit is configured to receive spatial information, wherein said spatial information corresponds to a relative location of said mobile unit with respect to said base unit as a function of time; characterized in that said analysis unit is configured to provide a recommendation on a location of said base unit , wherein said recommendation is based on said transmission power information and on said spatial information. said mobile unit , said base unit , and an analysis unit ; wherein said mobile unit is configured to provide transmission power information to said analysis unit , wherein said transmission power information corresponds to a transmission power needed by said mobile unit as a function of time; wherein said analysis unit is configured to receive spatial information, wherein said spatial information corresponds to a relative location of said mobile unit with respect to said base unit as a function of time; characterized in that said analysis unit is configured to provide a recommendation on a location of said base unit , wherein said recommendation is based on said transmission power information and on said spatial information.
A composition for use in enhancing neurogenesis in an animal that is suffering from cognitive decline, that is at risk of becoming cognitively impaired, that is diagnosed with a disease, disorder, or other condition that affects its cognitive abilities, or that is at risk of contracting a disease, disorder, or other condition that affects its cognitive abilities, the composition comprising an unsaturated fatty acid (UFA), a nitric oxide releasing compound (NORC), a B vitamin, and an antioxidant, in an amount effective for enhancing neurogenesis in the animal.
A device for rendering a higher order ambisonic, HOA, audio signal, the device comprising: a memory configured to store field of view, FOV, parameter information including one or more FOV parameters and HOA audio data associated with an HOA audio signal ; and one or more processors coupled to the memory, the one or more processors being configured to: determine a rendering matrix (R') for the HOA audio data by selecting, based on loudspeaker information indicative of a speaker configuration associated with one or more speaker feeds, a rendering matrix from a plurality of rendering matrices, the plurality of rendering matrices including a rendering matrix included in a bitstream and a locally generated rendering matrix; modify the selected rendering matrix (R') based on one or more FOV parameters of a reference screen and one or more FOV parameters of a viewing window to form a modified rendering matrix (D), the one or more FOV parameters of the reference screen being obtained based on information signaled in the bitstream; and apply the modified rendering matrix (D) to at least a portion of the stored HOA audio data to render the HOA audio signal into the one or more speaker feeds . a memory configured to store field of view, FOV, parameter information including one or more FOV parameters and HOA audio data associated with an HOA audio signal ; and one or more processors coupled to the memory, the one or more processors being configured to: determine a rendering matrix (R') for the HOA audio data by selecting, based on loudspeaker information indicative of a speaker configuration associated with one or more speaker feeds, a rendering matrix from a plurality of rendering matrices, the plurality of rendering matrices including a rendering matrix included in a bitstream and a locally generated rendering matrix; modify the selected rendering matrix (R') based on one or more FOV parameters of a reference screen and one or more FOV parameters of a viewing window to form a modified rendering matrix (D), the one or more FOV parameters of the reference screen being obtained based on information signaled in the bitstream; and apply the modified rendering matrix (D) to at least a portion of the stored HOA audio data to render the HOA audio signal into the one or more speaker feeds . determine a rendering matrix (R') for the HOA audio data by selecting, based on loudspeaker information indicative of a speaker configuration associated with one or more speaker feeds, a rendering matrix from a plurality of rendering matrices, the plurality of rendering matrices including a rendering matrix included in a bitstream and a locally generated rendering matrix; modify the selected rendering matrix (R') based on one or more FOV parameters of a reference screen and one or more FOV parameters of a viewing window to form a modified rendering matrix (D), the one or more FOV parameters of the reference screen being obtained based on information signaled in the bitstream; and apply the modified rendering matrix (D) to at least a portion of the stored HOA audio data to render the HOA audio signal into the one or more speaker feeds .
A separator for secondary batteries comprising: a flame retardant inorganic material, the separator being characterised by the following: the flame retardant inorganic material exists in a stable form and a metastable form, wherein the separator for secondary batteries always comprises the flame retardant inorganic material in the metastable form, wherein the flame retardant inorganic material is aluminum hydroxide (Al(OH) 3 ), wherein the flame retardant inorganic material in the stable form is gibbsite, and the flame retardant inorganic material in the metastable form is at least one of bayerite, doyleite and nordstrandite, and wherein the flame retardant inorganic material in the metastable form is at least 2 wt% of an entire content of flame retardant inorganic material. the flame retardant inorganic material exists in a stable form and a metastable form, wherein the separator for secondary batteries always comprises the flame retardant inorganic material in the metastable form, wherein the flame retardant inorganic material is aluminum hydroxide (Al(OH) 3 ), wherein the flame retardant inorganic material in the stable form is gibbsite, and the flame retardant inorganic material in the metastable form is at least one of bayerite, doyleite and nordstrandite, and wherein the flame retardant inorganic material in the metastable form is at least 2 wt% of an entire content of flame retardant inorganic material.
Aeronautical propulsion system comprising : a drive shaft rotatable about an axis of rotation (X), - a fan , - a fan shaft configured to drive the fan in rotation about the axis of rotation (X), - a reduction mechanism coupling the drive shaft and the fan shaft (13 - a compression section driven in rotation by the drive shaft , - an inlet duct which extends between the fan and the compression section , the inlet duct comprising an inner shroud and an outer shroud together delimiting a stream of air entering the compression section , the inner shroud having a predetermined minimum radius (R2), - the reduction mechanism comprising two reduction stages comprising at least two satellites distributed circumferentially around the axis of rotation (X), each satellite comprising a first portion meshed with the drive shaft and a second portion meshed with the fan shaft , - each satellite being fixedly mounted with respect to the inner shroud of the inlet casing , the propulsion system being characterised in that : each satellite has a predetermined maximum radius (R1), said maximum radius (R1) being greater than the minimum radius (R2) of the inner shroud of the inlet duct so that the air inlet stream extends at least partially between the two satellites - a fan , - a fan shaft configured to drive the fan in rotation about the axis of rotation (X), - a reduction mechanism coupling the drive shaft and the fan shaft (13 - a compression section driven in rotation by the drive shaft , - an inlet duct which extends between the fan and the compression section , the inlet duct comprising an inner shroud and an outer shroud together delimiting a stream of air entering the compression section , the inner shroud having a predetermined minimum radius (R2), - the reduction mechanism comprising two reduction stages comprising at least two satellites distributed circumferentially around the axis of rotation (X), each satellite comprising a first portion meshed with the drive shaft and a second portion meshed with the fan shaft , - each satellite being fixedly mounted with respect to the inner shroud of the inlet casing , the propulsion system being characterised in that : each satellite has a predetermined maximum radius (R1), said maximum radius (R1) being greater than the minimum radius (R2) of the inner shroud of the inlet duct so that the air inlet stream extends at least partially between the two satellites
A method for incorporating into the genome of a lytic target phage an exogenous DNA sequence, wherein the lytic target phage genome includes a first target sequence and a second target sequence, which method comprises: (a) providing a vector which contains a phage-targeting region comprising (i) a host range determinant of a marker phage, different from the host range determinant of the lytic target phage, and (ii) an exogenous DNA sequence: wherein the phage-targeting region is flanked by first and second flanking sequences homologous to the first and second target sequences of the lytic target phage genome; (b) introducing the vector into a first host cell, which host cell is a host for the lytic target phage; (c) infecting the first host cell with the lytic target phage; (d) allowing replication and recombination of phage to take place whereby the genome of the lytic target phage is modified; (e) propagating resultant phage on a second host cell, which host cell is a host for the marker phage and not the lytic target phage; and (f) harvesting the resultant phage, whereby the genome of the lytic target phage is modified by incorporation therein of the exogenous DNA sequence. (a) providing a vector which contains a phage-targeting region comprising (i) a host range determinant of a marker phage, different from the host range determinant of the lytic target phage, and (ii) an exogenous DNA sequence: wherein the phage-targeting region is flanked by first and second flanking sequences homologous to the first and second target sequences of the lytic target phage genome; (i) a host range determinant of a marker phage, different from the host range determinant of the lytic target phage, and (ii) an exogenous DNA sequence: wherein the phage-targeting region is flanked by first and second flanking sequences homologous to the first and second target sequences of the lytic target phage genome; (b) introducing the vector into a first host cell, which host cell is a host for the lytic target phage; (c) infecting the first host cell with the lytic target phage; (d) allowing replication and recombination of phage to take place whereby the genome of the lytic target phage is modified; (e) propagating resultant phage on a second host cell, which host cell is a host for the marker phage and not the lytic target phage; and (f) harvesting the resultant phage, whereby the genome of the lytic target phage is modified by incorporation therein of the exogenous DNA sequence.