mhurhangee/patent-ind-claim-en huggingface dataset:
A signal communication method of a transmitter in a mobile communication system, the method comprising: transmitting , to a receiver, system information including mapping information between a frequency resource region and a plurality of transmission array antennas for transmitting a signal to the receiver; transmitting , based on the system information, a reference signal to the receiver; and receiving , from the receiver, feedback information including beam information on an analog beam selected by the receiver for each of the plurality of transmission array antennas, the feedback information being identified based on the system information and by performing channel measurement on the frequency resource region allocated for each of the plurality of transmission array antennas based on the reference signal, wherein the frequency resource region includes a plurality of resource blocks, RBs, one transmission array antenna from among the plurality of transmission array antennas is used to transmit in each of the RBs, and the transmission array antenna used to transmit in each of the RBs is cyclically changed every predetermined number of frequency-consecutive RBs such that the plurality of transmission array antennas are cycled through across the frequency resource region, wherein the mapping information indicates the number of frequency-consecutive RBs, and wherein the number of frequency-consecutive RBs is at least two. transmitting , to a receiver, system information including mapping information between a frequency resource region and a plurality of transmission array antennas for transmitting a signal to the receiver; transmitting , based on the system information, a reference signal to the receiver; and receiving , from the receiver, feedback information including beam information on an analog beam selected by the receiver for each of the plurality of transmission array antennas, the feedback information being identified based on the system information and by performing channel measurement on the frequency resource region allocated for each of the plurality of transmission array antennas based on the reference signal, wherein the frequency resource region includes a plurality of resource blocks, RBs, one transmission array antenna from among the plurality of transmission array antennas is used to transmit in each of the RBs, and the transmission array antenna used to transmit in each of the RBs is cyclically changed every predetermined number of frequency-consecutive RBs such that the plurality of transmission array antennas are cycled through across the frequency resource region, wherein the mapping information indicates the number of frequency-consecutive RBs, and wherein the number of frequency-consecutive RBs is at least two.
Syringe for medical applications with a hollow cylindrical syringe body extending along an axial axis (X), at the distal end of which a hollow cylindrical end piece is formed which has a passage channel , wherein the syringe body comprises a storage area for a medium intended for administration, wherein in a rest state, the storage area is spaced from the passage channel of the hollow cylindrical end piece along the axial axis (X) by a distal spacing area and a first plug separates the storage area from the distal spacing area , wherein, in a dispensing state, a fluidic connection for the medium between the storage area and the passage channel can be opened via a bypass channel by displacing the first plug into the distal spacing area , wherein an axial length of the bypass channel extends at least over an axial length of the distal spacing area , characterized in that in a rest state before use of the syringe the storage area is filled with the medium intended for administration and no medium intended for administration is present in the distal spacing area .
Method for assisting with the navigation of a fleet of vehicles comprising a main vehicle and a secondary vehicle that is mobile in relation to the main vehicle , the method comprising the steps of: • receiving data (Y 1 , Y 2 ) acquired by at least one sensor , the data received comprising relative movement data between the main vehicle and the secondary vehicle , • estimating a navigation status of the fleet of vehicles by an invariant Kalman filter using the received data ( Y 1 , Y 2 ) as observations, characterised in that the navigation status comprises o first variables representing a first rigid transformation linking a location mark associated with the main vehicle to a reference point and o second variables representing a second rigid transformation linking a location mark associated with the main vehicle to a mark associated with the secondary vehicle , and wherein the invariant Kalman filter uses, as an internal composition law, a law comprising a term-by-term composition of the first rigid transformation and the second rigid transformation. • receiving data (Y 1 , Y 2 ) acquired by at least one sensor , the data received comprising relative movement data between the main vehicle and the secondary vehicle , • estimating a navigation status of the fleet of vehicles by an invariant Kalman filter using the received data ( Y 1 , Y 2 ) as observations, characterised in that the navigation status comprises o first variables representing a first rigid transformation linking a location mark associated with the main vehicle to a reference point and o second variables representing a second rigid transformation linking a location mark associated with the main vehicle to a mark associated with the secondary vehicle , and wherein the invariant Kalman filter uses, as an internal composition law, a law comprising a term-by-term composition of the first rigid transformation and the second rigid transformation. o first variables representing a first rigid transformation linking a location mark associated with the main vehicle to a reference point and o second variables representing a second rigid transformation linking a location mark associated with the main vehicle to a mark associated with the secondary vehicle ,
Roof window, constructed out of a sash frame with glass unit , a frame and said sash frame with glass unit comprising a four stiles attached to one another, the glass unit comprising an external glass pane in the form of vacuum insulated multiple glazed unit and at least one internal glass pane located underneath vacuum insulated multiple glazed unit , characterised in that internal glass pane surface area is smaller than the surface area of vacuum insulated multiple glazed unit .
A method for determining the amount of insulin and C-peptide in a sample by mass spectrometry, the method comprising: (a) subjecting insulin and C-peptide from a sample to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (b) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein said one or more ions comprise one or more insulin fragment ions selected from the group consisting of ions with m/z of 136.0 ± 0.5, 226.1 ± 0.5, and 345.2 ± 0.5 and one or more C-peptide fragment ions selected from the group consisting of ions with m/z of 533.3 ± 0.5, 646.4 ± 0.5, and 927.5 ± 0.5. (a) subjecting insulin and C-peptide from a sample to an ionization source under conditions suitable to generate one or more insulin and C-peptide ions detectable by mass spectrometry; and (b) determining the amount of one or more insulin and C-peptide ions by mass spectrometry, wherein said one or more ions comprise one or more insulin fragment ions selected from the group consisting of ions with m/z of 136.0 ± 0.5, 226.1 ± 0.5, and 345.2 ± 0.5 and one or more C-peptide fragment ions selected from the group consisting of ions with m/z of 533.3 ± 0.5, 646.4 ± 0.5, and 927.5 ± 0.5.
A system for optimizing a SIM card profile, wherein the system comprises: a configuration unit, configured to receive user input, configure the system to optimize one or more parameters, a logic executor unit, wherein the logic executor is configured to communicate with a subscriber database , a remote SIM provisioning platform , a mobile core network , and an artificial intelligence system ; wherein the configuration unit configures the logic executor unit to - retrieve a list of identifiers, that uniquely identify SIM cards belonging to the selected customer, from a subscriber database ; - retrieve SIM settings in accordance with the list of identifiers from a remote SIM provisioning platform ; - retrieve data comprising the selected parameter for the SIM cards identified by the list from a network; - forward the retrieved SIM settings and the data to an artificial intelligence system; - receive optimized SIM settings from the artificial intelligence system; - instruct the remote SIM provisioning system to generate new SIM profiles based on the optimized SIM settings and to deploy the SIM profiles. a configuration unit, configured to receive user input, configure the system to optimize one or more parameters, receive user input, configure the system to optimize one or more parameters, a logic executor unit, wherein the logic executor is configured to communicate with a subscriber database , a remote SIM provisioning platform , a mobile core network , and an artificial intelligence system ; wherein the configuration unit configures the logic executor unit to - retrieve a list of identifiers, that uniquely identify SIM cards belonging to the selected customer, from a subscriber database ; - retrieve SIM settings in accordance with the list of identifiers from a remote SIM provisioning platform ; - retrieve data comprising the selected parameter for the SIM cards identified by the list from a network; - forward the retrieved SIM settings and the data to an artificial intelligence system; - receive optimized SIM settings from the artificial intelligence system; - instruct the remote SIM provisioning system to generate new SIM profiles based on the optimized SIM settings and to deploy the SIM profiles. - retrieve a list of identifiers, that uniquely identify SIM cards belonging to the selected customer, from a subscriber database ; - retrieve SIM settings in accordance with the list of identifiers from a remote SIM provisioning platform ; - retrieve data comprising the selected parameter for the SIM cards identified by the list from a network; - forward the retrieved SIM settings and the data to an artificial intelligence system; - receive optimized SIM settings from the artificial intelligence system; - instruct the remote SIM provisioning system to generate new SIM profiles based on the optimized SIM settings and to deploy the SIM profiles.
A pneumatic method of separating mineral raw materials, which comprises placing raw materials which are to be separated on an air-permeable surface which traverses a separation chamber with a rising air flow that lifts light fractions from the air-permeable surface, the latter being in the form of a conveyor passing beneath the lower base of the separation chamber, in which, by selection of the velocity of the air flow , a dilute fluidized bed layer is formed from particles of a specified density, into which less dense particles enter and through which said particles pass without obstruction before being transferred with the rising air flow out of the separation chamber into a gravitational deposition chamber, wherein the separation chamber is installed inclined towards the conveyor plane , and the acute angle formed by longitudinal walls of the separation chamber and its base is directed towards the conveyor motion, characterized in that the plane of the lower base of the separation chamber is parallel to the conveyor plane .
A method for applying agricultural substances in curves by means of determining application target quantities of individual application devices of an application unit for applying agricultural substances, comprising the steps of: - driving on an agricultural area with an agricultural vehicle having an application unit, wherein the application unit has at least two individual application devices, - recognizing the driving in a curve with the agricultural vehicle via suitable sensors or capturing devices, characterized by the steps of: - determining and calculating the curve radius (R F ) to be travelled by the vehicle center (M F ) via detecting the steering angle or by acceleration sensors or gyros, - determining the curve radii (R A ) of each individual application device from the curve radius of the vehicle center (M F ) and an offset or distance (O G ) between the vehicle center (M F ) and the center of the application unit (M G ), and the offset or distance (O A ) between the center of the application unit (M G ) and the individual application device, and - determining the application target quantity of an individual application device by means of an application target quantity of the agricultural vehicle that had been determined or calculated prior to processing an agricultural area, and by means of curve radius values (R F , R A ) of the individual application device and the vehicle center, and by inputting the determined/calculated application target quantity into a computer of the vehicle and automatically controlling the application target quantity on the application unit by the computer. - driving on an agricultural area with an agricultural vehicle having an application unit, wherein the application unit has at least two individual application devices, - recognizing the driving in a curve with the agricultural vehicle via suitable sensors or capturing devices, characterized by the steps of: - determining and calculating the curve radius (R F ) to be travelled by the vehicle center (M F ) via detecting the steering angle or by acceleration sensors or gyros, - determining the curve radii (R A ) of each individual application device from the curve radius of the vehicle center (M F ) and an offset or distance (O G ) between the vehicle center (M F ) and the center of the application unit (M G ), and the offset or distance (O A ) between the center of the application unit (M G ) and the individual application device, and - determining the application target quantity of an individual application device by means of an application target quantity of the agricultural vehicle that had been determined or calculated prior to processing an agricultural area,
A method of operating a mobile device that is configured to receive multi-antenna downlink transmissions from a network node, the mobile device being configured to perform link adaptation to select a suitable modulation and/or coding scheme, MCS, from a plurality of available modulation and/or coding schemes, MCSs, for the multi-antenna downlink transmission, the method comprising: (i) determining whether the network node is sending dedicated pilots or reference signals to the mobile device for demodulation of the multi-antenna downlink transmission; in the event that dedicated pilots or reference signals are being transmitted, determining, based on whether the dedicated pilots or reference signals are being transmitted with restrictions, that an unrestricted set of MCSs is to be used, and otherwise determining that a restricted set of MCSs is to be used, the unrestricted set of MCSs comprising all of the plurality of available MCSs, the restricted set comprising a subset of the plurality of available MCSs; and (ii) performing the link adaptation to select the MCS for the multi-antenna downlink transmission using the unrestricted or restricted set of MCSs determined in step (i) (steps 203, 205). (i) determining whether the network node is sending dedicated pilots or reference signals to the mobile device for demodulation of the multi-antenna downlink transmission; in the event that dedicated pilots or reference signals are being transmitted, determining, based on whether the dedicated pilots or reference signals are being transmitted with restrictions, that an unrestricted set of MCSs is to be used, and otherwise determining that a restricted set of MCSs is to be used, the unrestricted set of MCSs comprising all of the plurality of available MCSs, the restricted set comprising a subset of the plurality of available MCSs; and (ii) performing the link adaptation to select the MCS for the multi-antenna downlink transmission using the unrestricted or restricted set of MCSs determined in step (i) (steps 203, 205).
A vehicle window assembly , comprising a glass ply , comprising an inner and an outer glass ply, an electro-conductive coating located on a surface of the inner or outer glass ply , wherein the electro-conductive coating has an outer peripheral edge arranged such that it is spaced from the inner peripheral metal edge of the vehicle's frame when the window assembly is mounted to the vehicle, to define an antenna slot ; and a capacitive coupling strip located on the glass ply and overlapping the outer peripheral edge of the electro-conductive coating proximate an antenna feed structure , wherein the coupling strip capacitively couples a wide bandwidth radio frequency signal from approximately 47 MHz to 240 MHz and 470 MHz to 860 MHz into and out of the antenna slot ; characterized in that the coupling strip is bifurcated into a first part and a second part, and further comprises an inductor disposed between the first part of the coupling strip and the second part of the coupling strip , wherein the reactance of the inductor is tuned to match the antenna for radio frequency signals from 470 MHz to 860 MHz.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a signaling communication that includes information specifying whether a channel state information reference signal, CSI-RS, precoding resource block group includes a same quantity of resource blocks, RBs, that is included in a CSI reporting subband configured for the UE, receiving a CSI-RS transmitted by a base station, wherein the CSI-RS precoding resource block group enables the UE to perform a channel estimation based at least in part on the CSI-RS transmitted by the base station; and performing the channel estimation based at least in part on the CSI-RS transmitted by the base station, wherein the channel estimation is based at least in part on whether the CSI-RS precoding resource block group includes the same quantity of RBs that is included in the CSI reporting subband configured for the UE, and wherein if the information specifies that the CSI-RS precoding resource block group does not include the same quantity of RBs, the information further comprises: information identifying an RB at which the CSI-RS precoding resource block group starts. receiving a signaling communication that includes information specifying whether a channel state information reference signal, CSI-RS, precoding resource block group includes a same quantity of resource blocks, RBs, that is included in a CSI reporting subband configured for the UE, receiving a CSI-RS transmitted by a base station, wherein the CSI-RS precoding resource block group enables the UE to perform a channel estimation based at least in part on the CSI-RS transmitted by the base station; and performing the channel estimation based at least in part on the CSI-RS transmitted by the base station, wherein the channel estimation is based at least in part on whether the CSI-RS precoding resource block group includes the same quantity of RBs that is included in the CSI reporting subband configured for the UE, and wherein if the information specifies that the CSI-RS precoding resource block group does not include the same quantity of RBs, the information further comprises: information identifying an RB at which the CSI-RS precoding resource block group starts.
A polyorganosiloxane hybrid pressure sensitive adhesive composition comprising: (I) a polyorganosiloxane having both aliphatically unsaturated groups and poly(meth)acrylate groups, wherein the polyorganosiloxane comprises unit formula: [R 3 w (R 5 -S-R")(OR 4 ) (2-w) Si-O 1/2 ] p [R 3 v (R 5 -S-R")(OR 4 ) (1-v) Si-O 2/2 ] q [(R 5 -S-R")Si-O 3/2 ] k (R 6 R 7 2 SiO 1/2 ) r (R 7 2 SiO 2/2 ) s (R 6 R 7 SiO 2/2 ) t (R 7 3 SiO 1/2 ) u , where each subscript w is independently 0, 1, or 2, each subscript v is independently 0 or 1, each R 3 is an independently selected monovalent hydrocarbon group; each R 4 is an independently selected alkyl group; each R 5 is an independently selected divalent hydrocarbon group, each R" is independently a (meth)acrylate polymer or copolymer, each R 6 is an independently selected aliphatically unsaturated monovalent hydrocarbon group, each R 7 is an independently selected monovalent hydrocarbon group free of aliphatic unsaturation, subscript p ≥ 0, subscript q ≥ 0, subscript k ≥ 0, a quantity (p + q + k) ≥ 1, subscript r ≥ 0, subscript s ≥ 0, subscript t ≥ 0, subscript u ≥ 0, a quantity (r + t) ≥ 1, and a quantity (p + q + k + r + s + t + u) is sufficient to provide a molecular weight of at least 50 kDa to the polyorganosiloxane; ( II ) an organohydrogensilicon compound having, per molecule, at least 3 silicon bonded hydrogen atoms; (III) a hydrosilylation reaction catalyst; optionally (IV) a hydrosilylation reaction inhibitor; (V) a polyorganosilicate resin; and optionally (XX) a solvent. (I) a polyorganosiloxane having both aliphatically unsaturated groups and poly(meth)acrylate groups, wherein the polyorganosiloxane comprises unit formula: [R 3 w (R 5 -S-R")(OR 4 ) (2-w) Si-O 1/2 ] p [R 3 v (R 5 -S-R")(OR 4 ) (1-v) Si-O 2/2 ] q [(R 5 -S-R")Si-O 3/2 ] k (R 6 R 7 2 SiO 1/2 ) r (R 7 2 SiO 2/2 ) s (R 6 R 7 SiO 2/2 ) t (R 7 3 SiO 1/2 ) u , where each subscript w is independently 0, 1, or 2, each subscript v is independently 0 or 1, each R 3 is an independently selected monovalent hydrocarbon group; each R 4 is an independently selected alkyl group; each R 5 is an independently selected divalent hydrocarbon group, each R" is independently a (meth)acrylate polymer or copolymer, each R 6 is an independently selected aliphatically unsaturated monovalent hydrocarbon group, each R 7 is an independently selected monovalent hydrocarbon group free of aliphatic unsaturation, subscript p ≥ 0, subscript q ≥ 0, subscript k ≥ 0, a quantity (p + q + k) ≥ 1, subscript r ≥ 0, subscript s ≥ 0, subscript t ≥ 0, subscript u ≥ 0, a quantity (r + t) ≥ 1, and a quantity (p + q + k + r + s + t + u) is sufficient to provide a molecular weight of at least 50 kDa to the polyorganosiloxane; ( II ) an organohydrogensilicon compound having, per molecule, at least 3 silicon bonded hydrogen atoms; (III) a hydrosilylation reaction catalyst; optionally (IV) a hydrosilylation reaction inhibitor; (V) a polyorganosilicate resin; and
A process for the preparation of gabapentin comprising the steps of: a) reacting spiro[cyclohexane-1,9'-(3,7-diazabicyclo-[3.3.1]nonane)]-2',4',6',8'-tetraone of the formula VI: with an alkali to obtain 1,1-cyclohexane diacetic acid monoamide of the formula IV and b) converting the compound IV obtained in step-a to gabapentin I by Hofmann reaction using alkali hypo halite. a) reacting spiro[cyclohexane-1,9'-(3,7-diazabicyclo-[3.3.1]nonane)]-2',4',6',8'-tetraone of the formula VI: with an alkali to obtain 1,1-cyclohexane diacetic acid monoamide of the formula IV and b) converting the compound IV obtained in step-a to gabapentin I by Hofmann reaction using alkali hypo halite.
A bracket for securing a fall arrest device to a structure, the bracket comprising a first securing means for securing the fall arrest device with respect to the bracket in a first direction and a second securing means for securing the fall arrest device with respect to the bracket in a second direction, wherein the second securing means comprises a front retainer element arranged to be spaced from the structure and extend adjacent to the fall arrest device to retain it in place, wherein the front retainer element is spaced from a rear portion of the bracket , and wherein the front retainer element comprises an annular element defining a substantially circular opening which is arranged to receive a portion of the fall arrest device therethrough.