mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a mobile station configured to communicate in multi-active mode with a plurality of cellular networks, the method comprising: causing, by a trusted user interface (UI) client accessible by a user via an authentication procedure and stored by an application memory of the mobile station, provisioning of virtual subscriber identity module (SIM) cards on behalf of the mobile station, wherein provisioning the virtual SIM cards comprises at least one of purchasing, downloading, activating, deactivating, or deleting the virtual SIM cards; coordinating, by a trusted baseband client accessible by the user via the authentication procedure and stored by a baseband memory of the mobile station, communication between the mobile station and one or more of the plurality of cellular networks using one or more corresponding virtual SIM cards; and coordinating, by the trusted baseband client , communication with a profile manager that hosts a set of virtual SIM cards associated with the mobile station. causing, by a trusted user interface (UI) client accessible by a user via an authentication procedure and stored by an application memory of the mobile station, provisioning of virtual subscriber identity module (SIM) cards on behalf of the mobile station, wherein provisioning the virtual SIM cards comprises at least one of purchasing, downloading, activating, deactivating, or deleting the virtual SIM cards; coordinating, by a trusted baseband client accessible by the user via the authentication procedure and stored by a baseband memory of the mobile station, communication between the mobile station and one or more of the plurality of cellular networks using one or more corresponding virtual SIM cards; and coordinating, by the trusted baseband client , communication with a profile manager that hosts a set of virtual SIM cards associated with the mobile station.
A blood pressure analysis system comprising: (a) computing device ; (b) analog sensor A/D converter ; (c) bridge excitation converter ; and (d) bridge sense D/A converter ; wherein: said analog sensor A/D converter is configured to sample an analog signal from a fiber-optic sensor and converts said analog signal to a digital sensor value; said fiber-optic sensor is associated with calibration factors that comprises data used to normalize said analog signal from said fiber-optic sensor ; said computing device is configured to apply said calibration factors to said digital sensor value to produce a digital compensated sensor value; said bridge excitation converter is configured to receive an analog excitation signal and convert said analog excitation signal to produce a digitally emulated Wheatstone Bridge excitation value; said bridge sense D/A converter is configured to receive said digital compensated sensor value and generates an analog compensated sensor value; and said analog compensated sensor value is scaled by said digitally emulated Wheatstone Bridge excitation value to produce a converted analog Wheatstone Bridge sense signal . (a) computing device ; (b) analog sensor A/D converter ; (c) bridge excitation converter ; and (d) bridge sense D/A converter ; said analog sensor A/D converter is configured to sample an analog signal from a fiber-optic sensor and converts said analog signal to a digital sensor value; said fiber-optic sensor is associated with calibration factors that comprises data used to normalize said analog signal from said fiber-optic sensor ; said computing device is configured to apply said calibration factors to said digital sensor value to produce a digital compensated sensor value; said bridge excitation converter is configured to receive an analog excitation signal and convert said analog excitation signal to produce a digitally emulated Wheatstone Bridge excitation value; said bridge sense D/A converter is configured to receive said digital compensated sensor value and generates an analog compensated sensor value; and said analog compensated sensor value is scaled by said digitally emulated Wheatstone Bridge excitation value to produce a converted analog Wheatstone Bridge sense signal .
A cellulose based pressboard for insulation in an electrical apparatus , the pressboard comprising: polyvinylamine, PVAm; and polyacrylamide, PAM; in a combined amount of between 0.01% and 20% by weight of the pressboard, wherein the pressboard is in the form of a solid insulator for the electrical apparatus. polyvinylamine, PVAm; and polyacrylamide, PAM; in a combined amount of between 0.01% and 20% by weight of the pressboard, wherein the pressboard is in the form of a solid insulator for the electrical apparatus.
A data sending method, wherein the method comprises: generating a remote direct memory access, RDMA, packet, wherein a payload part of the RDMA packet comprises a plurality of data blocks and protection information, PI, corresponding to each of the plurality data blocks in to-be-sent data; or a payload part of the RDMA packet comprises one data unit or a part of data in the data unit of to-be-sent data, the data unit comprises one data block and PI corresponding to the data block, and a length of the data unit is equal to an integer multiple of a length of the part of data; and sending the RDMA packet; wherein the generating a remote direct memory access RDMA packet comprises: obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block. generating a remote direct memory access, RDMA, packet, wherein a payload part of the RDMA packet comprises a plurality of data blocks and protection information, PI, corresponding to each of the plurality data blocks in to-be-sent data; or a payload part of the RDMA packet comprises one data unit or a part of data in the data unit of to-be-sent data, the data unit comprises one data block and PI corresponding to the data block, and a length of the data unit is equal to an integer multiple of a length of the part of data; and sending the RDMA packet; wherein the generating a remote direct memory access RDMA packet comprises: obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block. obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block.
A product container comprising: a housing defining a hollow interior; and a closure coupled to the housing such that the closure covers an opening to the hollow interior, wherein the closure comprises a textured thermoplastic elastomer on at least a portion of the closure , wherein the thermoplastic elastomer comprises one or more projections extending therefrom, characterized in that the thermoplastic elastomer is hydrophilic and polar. a housing defining a hollow interior; and a closure coupled to the housing such that the closure covers an opening to the hollow interior, wherein the closure comprises a textured thermoplastic elastomer on at least a portion of the closure , wherein the thermoplastic elastomer comprises one or more projections extending therefrom, characterized in that the thermoplastic elastomer is hydrophilic and polar.
Process for preparing 4-{[ -2-{4-[5-chloro-2-(4-chloro-1H-1,2,3-triazol-1-yl)phenyl]-5-methoxy-2-oxopyridin-1 -yl}butanoyl]amino}-2-fluorobenzamide (I) or 4-({ -2-[4-{5-chloro-2-[4-(trifluoromethyl)-1H-1,2,3-triazol-1-yl]phenyl}-5-methoxy-2-oxopyridin-1 -yl]butanoyl}-amino)-2-fluorobenzamide (II), characterized in that respectively 4-[5-chloro-2-(4-chloro-1H-1,2,3 -triazol-1-yl)phenyl]-5-methoxypyridin-2 -one (XVI-Cl) or 4-{5-chloro-2-[4-(trifluoromethyl)-1H-1,2,3-triazol-1-yl]phenyl}-5-methoxypyridin-2 -one (XVI-CF 3 ) is reacted with 4-{[ -2-bromobutanoyl]amino}-2-fluorobenzamide (XIX) in the presence of a base in a solvent and the compound of the formula (I) or (II) is subsequently isolated.
A voice command manager for a building automation system of a building , the voice command manager comprising: an input port of a server located outside of the building for receiving a first natural language voice command over a network from a first voice sensor device located within the building and for receiving a second natural language voice command over the network from a second voice sensor device; a memory for storing the first natural language voice command and the second natural language voice command; a processor configured to translate the first natural language voice command into a first command understandable by a building automation controller of the building automation system and translate the second natural language voice command into a second command understandable by the building automation controller , identify whether there is a conflict between the first natural language voice command and the second natural language voice command, and when the conflict is identified, determine which one of the first command understandable by the building automation controller and the second command understandable by the building automation controller should be transmitted to the building automation controller for execution; and an output port for transmitting the one of the first command understandable by the building automation controller and the second command understandable by the building automation controller to the building automation controller for execution, wherein the voice command manager is implemented in the server located outside of the building . an input port of a server located outside of the building for receiving a first natural language voice command over a network from a first voice sensor device located within the building and for receiving a second natural language voice command over the network from a second voice sensor device; a memory for storing the first natural language voice command and the second natural language voice command; a processor configured to translate the first natural language voice command into a first command understandable by a building automation controller of the building automation system and translate the second natural language voice command into a second command understandable by the building automation controller , identify whether there is a conflict between the first natural language voice command and the second natural language voice command, and when the conflict is identified, determine which one of the first command understandable by the building automation controller and the second command understandable by the building automation controller should be transmitted to the building automation controller for execution; and an output port for transmitting the one of the first command understandable by the building automation controller and the second command understandable by the building automation controller to the building automation controller for execution, wherein the voice command manager is implemented in the server located outside of the building .
An authenticity determination method wherein authenticity determination is carried out by a change in emitted light color caused by frictional heat generated by rubbing an ink layer containing a solidified product of an ink composition comprising one or two or more kinds of rare-earth complexes containing trivalent rare-earth ions and at least one organic ligand selected from a β-diketone ligand, a carboxylic acid ligand, a phosphine oxide ligand and a nitrogen-containing aromatic heterocyclic ligand, wherein at least one selected from the following group A and at least one selected from the following group B are contained as the trivalent rare-earth ions contained in the one or two or more kinds of rare-earth complexes: Group A: Eu 3+ , Sm 3+ , Pr 3+ and Ho 3+ Group B: Tb 3+ , Er 3+ , Tm 3+ , Dy 3+ , Yb 3+ , Nd 3+ , Ce 3+ and Gd 3+ . Group A: Eu 3+ , Sm 3+ , Pr 3+ and Ho 3+ Group B: Tb 3+ , Er 3+ , Tm 3+ , Dy 3+ , Yb 3+ , Nd 3+ , Ce 3+ and Gd 3+ .
A method for obtaining a lipase variant of a parent lipase, comprising introducing into a parent lipase an alteration at one or more positions of the parent lipase, wherein the alteration at one or more positions provides at least one disulfide bond and wherein the hydrolytic activity of the lipase variant is reduced as compared to the hydrolytic activity of the parent lipase, when hydrolytic activity is determined according to example 3 by measuring the release of 4-methylumbelliferone diluted in 0.2M HEPES buffer, pH 8.5 in a cellulose suspension of cellulose coated with a mixture of triglyceride and 4-methylumbelliferyl oleate, wherein the alteration is selected from one or more of the following substitutions pairs selected from L-57C/N120C, L-54C/P101C, A-47C/V102C, S-24C/G104C, P-46C/N186C, S-43C/N186C, T-40C/P182C, T-40C/L216C, T-40C/L239C, D-38C/A212C, P-37C/E240C, P-37C/N246C, E-36C/N246C, E-36C/V249C, A-33C/V249C and S-31C/V249C wherein the positions correspond to the positions of SEQ ID NO: 2; wherein the amino acid sequence of said lipase variant has at least 80%, at least 85%, at least 90% or at least 95% sequence identity with SEQ ID NO: 2; SEQ ID NO: 8; SEQ ID NO: 9; SEQ ID NO: 10; SEQ ID NO: 11; SEQ ID NO: 12; SEQ ID NO: 13 SEQ ID NO: 14 SEQ ID NO: 15; or SEQ ID NO: 16.
A method by system of a home public land mobile network, PLMN, configured to communicate through an interface with electronic devices, the system comprising a first Authentication Server Function, AUSF, instance associated with a first access type, a second AUSF instance associated with a second access type, and a Unified Data Management, UDM, the method comprising: receiving , at the first AUSF instance, a first authentication request from a first PLMN of the first access type that is authenticating an electronic device; obtaining , at the first AUSF instance, a first security key used for integrity protection of messages delivered from the home PLMN to the electronic device; receiving , at the second AUSF instance, a second authentication request from a second PLMN of the second access type that is authenticating the electronic device; obtaining , at the second AUSF instance, a second security key used for integrity protection of the messages delivered from the home PLMN to the electronic device; receiving from the second AUSF instance, at the UDM, confirmation that the second AUSF instance has completed successful primary authentication for the electronic device; and sending, by the UDM, an indication to the first AUSF instance to delete the first security key. receiving , at the first AUSF instance, a first authentication request from a first PLMN of the first access type that is authenticating an electronic device; obtaining , at the first AUSF instance, a first security key used for integrity protection of messages delivered from the home PLMN to the electronic device; receiving , at the second AUSF instance, a second authentication request from a second PLMN of the second access type that is authenticating the electronic device; obtaining , at the second AUSF instance, a second security key used for integrity protection of the messages delivered from the home PLMN to the electronic device; receiving from the second AUSF instance, at the UDM, confirmation that the second AUSF instance has completed successful primary authentication for the electronic device; and sending, by the UDM, an indication to the first AUSF instance to delete the first security key.
Lens device, comprising: - a transparent and elastically expandable membrane , - a transparent optical element facing the membrane , - a wall member , wherein the optical element and the membrane are connected to the wall member such that a volume (V) is formed, - a fluid (F) residing in said volume (V) and completely filling it, and - a lens shaping member attached to the membrane , characterized in that, the lens shaping member is attached to an outside of the membrane , which outside faces away from said volume (V), and wherein the lens device comprises an actuator means that is designed to move the optical element in an axial direction (A) with respect to the lens shaping member so as to adjust the pressure of the fluid (F) residing inside the volume (V) and therewith a curvature of said membrane , wherein said axial direction (A) is oriented perpendicular to a plane along which the lens shaping member extends, and wherein said actuator means is designed to tilt the optical element with respect to said plane, so as to form the volume (V) into a prism for deflecting light passing through the volume (V), and wherein the actuator means is designed to act on the wall member for moving the optical element axially and for tilting the optical element. - a transparent and elastically expandable membrane , - a transparent optical element facing the membrane , - a wall member , wherein the optical element and the membrane are connected to the wall member such that a volume (V) is formed, - a fluid (F) residing in said volume (V) and completely filling it, and - a lens shaping member attached to the membrane ,
An apparatus for estimating battery cell capacity, comprising : at least one processor ; and a memory for storing at least one instruction executed by the at least one processor, wherein the at least one instruction includes: an instruction to derive a discharge curve for each battery cell included in a module including a plurality of battery cells; an instruction to calculate an additional dischargeable capacity of a second battery cell based on a pattern of the discharge curve of a first battery cell; characterized in that the at least one instruction further includes an instruction to derive a charge curve for each battery cell included in the module; an instruction to calculate an additional chargeable capacity of the second battery cell based on a pattern of the charge curve of the first battery cell; and an instruction to calculate a capacity of the second battery cell based on the additional dischargeable capacity and the additional chargeable capacity of the second battery cell. at least one processor ; and a memory for storing at least one instruction executed by the at least one processor, wherein the at least one instruction includes: an instruction to derive a discharge curve for each battery cell included in a module including a plurality of battery cells; an instruction to calculate an additional dischargeable capacity of a second battery cell based on a pattern of the discharge curve of a first battery cell; characterized in that the at least one instruction further includes an instruction to derive a charge curve for each battery cell included in the module; an instruction to calculate an additional chargeable capacity of the second battery cell based on a pattern of the charge curve of the first battery cell; and an instruction to calculate a capacity of the second battery cell based on the additional dischargeable capacity and the additional chargeable capacity of the second battery cell. an instruction to derive a discharge curve for each battery cell included in a module including a plurality of battery cells; an instruction to calculate an additional dischargeable capacity of a second battery cell based on a pattern of the discharge curve of a first battery cell; characterized in that the at least one instruction further includes an instruction to derive a charge curve for each battery cell included in the module; an instruction to calculate an additional chargeable capacity of the second battery cell based on a pattern of the charge curve of the first battery cell; and an instruction to calculate a capacity of the second battery cell based on the additional dischargeable capacity and the additional chargeable capacity of the second battery cell.
System comprising a floating body that has an arm , the arm being movable via at least one actuator , with a movement compensation device being provided by means of which a movement of the arm can be compensated, with a sensor device being provided which is designed in such a way that a deformation of the arm and/or a vibration of the arm is determined, the movement compensation device being designed in such a way that the deformation and/or vibration determined by means of the sensor device is used for the movement compensation, characterized in that the sensor device is designed in such a way that a relative position (T 39 ) between two regions of the arm is determined, with one region being provided at the free end and one region being provided closer to a base of the arm .
A mono or multi-layer polyester film, wherein at least one layer of the film comprises at least one polyester in an amount ranging from 70.0 to 99.9 wt.-% and a surface-treated filler material product in an amount ranging from 0.1 to 30.0 wt.-%, based on the total weight of the layer, wherein the surface-treated filler material product comprises A) at least one ground calcium carbonate-comprising filler material having a weight median particle size d 50 (measured as defined in the description) in the range from 0.5 μm to 3.0 μm, and B) a treatment layer on the surface of the at least one ground calcium carbonate-comprising filler material comprising i. at least one aliphatic aldehyde and/or salty reaction products thereof, and/or ii. at least one mono-substituted succinic anhydride consisting of succinic anhydride mono-substituted with a group selected from a linear, branched, aliphatic and cyclic group having a total amount of carbon atoms from at least C 2 to C 30 in the substituent and/or salty reaction products thereof, and/or iii. at least one polydialkylsiloxane, and/or iv. mixtures of the materials according to i. to iii., wherein the surface-treated filler material product comprises the treatment layer in an amount of from 0.1 to 2.3 wt.-%, based on the total dry weight of the at least one ground calcium carbonate-comprising filler material, and wherein the mono or multi-layer polyester film is not a mono or multi-layered biaxially oriented polyester film. A) at least one ground calcium carbonate-comprising filler material having a weight median particle size d 50 (measured as defined in the description) in the range from 0.5 μm to 3.0 μm, and B) a treatment layer on the surface of the at least one ground calcium carbonate-comprising filler material comprising i. at least one aliphatic aldehyde and/or salty reaction products thereof, and/or ii. at least one mono-substituted succinic anhydride consisting of succinic anhydride mono-substituted with a group selected from a linear, branched, aliphatic and cyclic group having a total amount of carbon atoms from at least C 2 to C 30 in the substituent and/or salty reaction products thereof, and/or iii. at least one polydialkylsiloxane, and/or iv. mixtures of the materials according to i. to iii., i. at least one aliphatic aldehyde and/or salty reaction products thereof, and/or ii. at least one mono-substituted succinic anhydride consisting of succinic anhydride mono-substituted with a group selected from a linear, branched, aliphatic and cyclic group having a total amount of carbon atoms from at least C 2 to C 30 in the substituent and/or salty reaction products thereof, and/or iii. at least one polydialkylsiloxane, and/or iv. mixtures of the materials according to i. to iii., wherein the surface-treated filler material product comprises the treatment layer in an amount of from 0.1 to 2.3 wt.-%, based on the total dry weight of the at least one ground calcium carbonate-comprising filler material, and wherein the mono or multi-layer polyester film is not a mono or multi-layered biaxially oriented polyester film.