mhurhangee/ep-ind-claims huggingface dataset:
A satellite control system comprising: a communications system configured to receive commands from a plurality of operators and send the commands to a satellite using a number of communications links; and an information management system configured to avoid conflicts between the commands sent by the communications system to the satellite from different operators in the plurality of operators that cause an undesired operation of the satellite; characterised in that the information management system comprises a transmission controller configured to control a token to be sent to one of the plurality of operators, wherein the token provides an operator having received the token a permission or an ability to send commands via the communications system for processing by the satellite, such that the transmission controller allows the commands to be sent from only one operator of the plurality of operators at a time. a communications system configured to receive commands from a plurality of operators and send the commands to a satellite using a number of communications links; and an information management system configured to avoid conflicts between the commands sent by the communications system to the satellite from different operators in the plurality of operators that cause an undesired operation of the satellite; characterised in that the information management system comprises a transmission controller configured to control a token to be sent to one of the plurality of operators, wherein the token provides an operator having received the token a permission or an ability to send commands via the communications system for processing by the satellite, such that the transmission controller allows the commands to be sent from only one operator of the plurality of operators at a time.
System for treating a head of hair, notably for washing a head of hair, comprising: - a pipe for circulating a liquid, - a device for feeding the pipe with water, - at least one source of product, the product comprising one or more surfactants, - a device for injecting product into the pipe, - a dispensing device for delivering a treatment solution onto the head of hair, characterised in that the system further comprises - a member arranged to control the amount of product injected by the device into the pipe to form the treatment solution comprising one or more surfactants in a content ranging from 0.35% to 1.5% by weight of surfactant(s) relative to the total weight of the treatment solution, and arranged to control the flow rate of liquid delivered by the dispensing device to have a flow rate of between 0.5 and 5 L/min, better still between 0.8 and 3 L/min. - a pipe for circulating a liquid, - a device for feeding the pipe with water, - at least one source of product, the product comprising one or more surfactants, - a device for injecting product into the pipe, - a dispensing device for delivering a treatment solution onto the head of hair, characterised in that the system further comprises - a member arranged to control the amount of product injected by the device into the pipe to form the treatment solution comprising one or more surfactants in a content ranging from 0.35% to 1.5% by weight of surfactant(s) relative to the total weight of the treatment solution, and arranged to control the flow rate of liquid delivered by the dispensing device to have a flow rate of between 0.5 and 5 L/min, better still between 0.8 and 3 L/min.
A method for controlling a wind turbine, the method comprising: controlling, via a processor, the wind turbine based on at least one first aerodynamic performance map embodied as a dimensional or non-dimensional table or graph that describe rotor loading and performance under given conditions comprising at least one of density, wind speed, rotor speed, or pitch angle; monitoring an actual wind parameter of the wind turbine using one or more sensors; determining, via the processor, an adjustment factor for the aerodynamic performance map based at least in part on the measured actual wind parameter; applying the adjustment factor to the first aerodynamic performance map to obtain an adjusted aerodynamic performance map comprising multiplying the adjustment factor by at least one of a power coefficient or thrust coefficient obtained from the first aerodynamic performance map; and, controlling the wind turbine based on the adjusted aerodynamic performance map. controlling, via a processor, the wind turbine based on at least one first aerodynamic performance map embodied as a dimensional or non-dimensional table or graph that describe rotor loading and performance under given conditions comprising at least one of density, wind speed, rotor speed, or pitch angle; monitoring an actual wind parameter of the wind turbine using one or more sensors; determining, via the processor, an adjustment factor for the aerodynamic performance map based at least in part on the measured actual wind parameter; applying the adjustment factor to the first aerodynamic performance map to obtain an adjusted aerodynamic performance map comprising multiplying the adjustment factor by at least one of a power coefficient or thrust coefficient obtained from the first aerodynamic performance map; and, controlling the wind turbine based on the adjusted aerodynamic performance map.
A method for determining a plurality of logical channels for data transceiving, characterized in that the method is performed by a terminal in a vehicle-to-everything, V2X, system and comprises: receiving configuration information from a network side, wherein the configuration information is configured with a first mapping relationship between a destination address corresponding to a data packet and at least one of the following resource attributes: a transmission time interval, TTI, or a carrier, wherein the carrier is one of a plurality of carriers for the terminal; determining a second mapping relationship between a logical channel and the destination address corresponding to the data packet; and selecting at least one of the following resource attributes corresponding to the logical channel based on the first mapping relationship and the second mapping relationship: the TTI, or the carrier; wherein a mapping relationship between the logical channel and the resource attribute is a third mapping relationship, and the method further comprises: acquiring a transmission resource; determining at least one of the following resource attributes corresponding to the transmission resource: the TTI or the carrier; and determining a plurality of logical channels associated with the transmission resource based on the resource attribute corresponding to the transmission resource, and the third mapping relationship. receiving configuration information from a network side, wherein the configuration information is configured with a first mapping relationship between a destination address corresponding to a data packet and at least one of the following resource attributes: a transmission time interval, TTI, or a carrier, wherein the carrier is one of a plurality of carriers for the terminal; determining a second mapping relationship between a logical channel and the destination address corresponding to the data packet; and selecting at least one of the following resource attributes corresponding to the logical channel based on the first mapping relationship and the second mapping relationship: the TTI, or the carrier; wherein a mapping relationship between the logical channel and the resource attribute is a third mapping relationship, and the method further comprises: acquiring a transmission resource; determining at least one of the following resource attributes corresponding to the transmission resource: the TTI or the carrier; and determining a plurality of logical channels associated with the transmission resource based on the resource attribute corresponding to the transmission resource, and the third mapping relationship.
A capacitor comprising: a box-shaped inner case whose one side surface is an opening surface; a capacitor element placed in the inner case through the opening surface, terminals (4a, 4b) of the capacitor element being arranged at the opening surface; and a thermal conductive potting material filling the inner case so that the capacitor element except the terminals (4a, 4b) is embedded, characterized in that the capacitor further comprises: an outer case enclosing outer sides of surfaces (21, 22, 23) except the opening surface of the inner case, forming gaps that serve as refrigerant flow passages between the inner case and the outer case and provided with a refrigerant inlet and a refrigerant outlet; a box-shaped inner case whose one side surface is an opening surface; a capacitor element placed in the inner case through the opening surface, terminals (4a, 4b) of the capacitor element being arranged at the opening surface; and a thermal conductive potting material filling the inner case so that the capacitor element except the terminals (4a, 4b) is embedded, characterized in that the capacitor further comprises: an outer case enclosing outer sides of surfaces (21, 22, 23) except the opening surface of the inner case, forming gaps that serve as refrigerant flow passages between the inner case and the outer case and provided with a refrigerant inlet and a refrigerant outlet;
A method of controlling radio communication in a wireless communication network, the method comprising: a wireless device (11; 600; 1100) determining a position of the wireless device (11; 600; 1100) based on an optical communication signal transmitted between the wireless device (11; 600; 1100) and one or more first access points (10; 800; 1200) of the wireless communication network; and characterised by based on the determined position, the wireless device (11; 600; 1100) controlling beamforming processing of radio communication signals transmitted between the wireless device (11; 600; 1100) and one or more second access points (10; 800; 1200) of the wireless communication network. a wireless device (11; 600; 1100) determining a position of the wireless device (11; 600; 1100) based on an optical communication signal transmitted between the wireless device (11; 600; 1100) and one or more first access points (10; 800; 1200) of the wireless communication network; and characterised by based on the determined position, the wireless device (11; 600; 1100) controlling beamforming processing of radio communication signals transmitted between the wireless device (11; 600; 1100) and one or more second access points (10; 800; 1200) of the wireless communication network.
An artificial fibrocartilage implant (1, 50) comprising: an arcuate or torroidal bioresorbable scaffold (10, 51); a bioresorbable circumferential fiber network (24, 53) embedded in said bioresorbable scaffold; and a bioresorbable orthogonal fiber network (25, 54) embedded in said bioresorbable scaffold (10, 51) to prevent separation of said bioresorbable circumferential fiber network (24, 53); wherein said bioresorbable circumferential fiber network and said bioresorbable orthogonal fiber network form a fiber network which has a wedge-shaped cross-section such that, in use, an axial force exerted by a bone condoyle on the wedge-shaped fiber network creates a tensile load along the bioresorbable circumferential fiber network, wherein orthogonal fibers of the orthogonal fiber network cross the circumferential fibers at various angles to keep them from separating, and wherein said bioresorbable circumferential fiber network and said bioresorbable orthogonal fiber network form a reinforcing matrix. an arcuate or torroidal bioresorbable scaffold (10, 51); a bioresorbable circumferential fiber network (24, 53) embedded in said bioresorbable scaffold; and a bioresorbable orthogonal fiber network (25, 54) embedded in said bioresorbable scaffold (10, 51) to prevent separation of said bioresorbable circumferential fiber network (24, 53); wherein said bioresorbable circumferential fiber network and said bioresorbable orthogonal fiber network form a fiber network which has a wedge-shaped cross-section such that, in use, an axial force exerted by a bone condoyle on the wedge-shaped fiber network creates a tensile load along the bioresorbable circumferential fiber network, wherein orthogonal fibers of the orthogonal fiber network cross the circumferential fibers at various angles to keep them from separating, and wherein said bioresorbable circumferential fiber network and said bioresorbable orthogonal fiber network form a reinforcing matrix.
Process for the preparation of organopolysiloxanes, in which in a first step, chlorosilanes are reacted continuously in a loop reactor with from 0.002 to 0.6 mol of water per mole of hydrolyzable chlorine and with from 0.3 to 1.6 mol of alcohol per mole of hydrolyzable chlorine, the molar ratio of water to alcohol being from 0.001 to 1.5, in a second step, the reaction mixture obtained in the first step is optionally mixed with a water-insoluble organic solvent having a density of less than 0.9 kg/l, and water is metered in in amounts of from 0.2 to 100 mol of water per mole of Si component, the second step being carried out in a batch reactor, and in a third step, after the end of the reactions of the second step, the aqueous alcoholic phase is separated off.
An antibody that recognizes an isolated A beta tetramer as an antigen, wherein the antibody does not bind to an A beta monomer, which is selected from the group consisting of: - an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 262 as CDR1, the amino acid sequence of SEQ ID NO: 264 as CDR2, and the amino acid sequence of SEQ ID NO: 266 as CDR3, and an L chain having the amino acid sequence of SEQ ID NO: 268 as CDR1, the amino acid sequence of SEQ ID NO: 270 as CDR2, and the amino acid sequence of SEQ ID NO: 272 as CDR3; and - an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 594 as VH and an L chain having the amino acid sequence of SEQ ID NO: 596 as VL. - an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 262 as CDR1, the amino acid sequence of SEQ ID NO: 264 as CDR2, and the amino acid sequence of SEQ ID NO: 266 as CDR3, and an L chain having the amino acid sequence of SEQ ID NO: 268 as CDR1, the amino acid sequence of SEQ ID NO: 270 as CDR2, and the amino acid sequence of SEQ ID NO: 272 as CDR3; and - an antibody that comprises an H chain having the amino acid sequence of SEQ ID NO: 594 as VH and an L chain having the amino acid sequence of SEQ ID NO: 596 as VL.
A belt drive (30, 205) comprising: at least one pair of spaced apart rails (220A, 221A and 220B, 221B in Fig. 8-10) extending in a first direction and defining a gap; and a belt aligned with the gap and to be driven in an endless loop, including a first movable portion (232 - Fig. 5A,5B) external to the gap on a first side of the rails and a second movable portion (234 - Fig. 5A, 5B) biased to be recessed within the gap on an opposite second side of the rails, wherein a rewritable display medium (28; 34) is releasably engageable in a sandwiched position between a slidable contact surface of the rails and a first segment of the second movable portion external to the gap to move the display medium in the first direction for contact-less imaging via a unit spaced from the rails. at least one pair of spaced apart rails (220A, 221A and 220B, 221B in Fig. 8-10) extending in a first direction and defining a gap; and a belt aligned with the gap and to be driven in an endless loop, including a first movable portion (232 - Fig. 5A,5B) external to the gap on a first side of the rails and a second movable portion (234 - Fig. 5A, 5B) biased to be recessed within the gap on an opposite second side of the rails, wherein a rewritable display medium (28; 34) is releasably engageable in a sandwiched position between a slidable contact surface of the rails and a first segment of the second movable portion external to the gap to move the display medium in the first direction for contact-less imaging via a unit spaced from the rails.
An information sending method, comprising: receiving, by an access and management function, AMF, network element, a request message sent by an access network element, wherein the request message comprises indication information, and the indication information is used to indicate whether the AMF network element needs to send a necessary parameter to the access network element and is used to trigger an access stratum security mode command, AS SMC, procedure; determining, by the AMF network element based on the indication information carried in the request message, whether the necessary parameter needs to be sent to the access network element, comprising determining based on a type of a terminal device, whether the AS SMC procedure needs to be performed, wherein the AMF network element determines that the AS SMC procedure needs to be performed if the terminal device is of an enhanced mobile broadband, eMBB, type, and that the AS SMC procedure does not need to be performed if the terminal device is one of a massive machine type of communication, mMTC, type or an ultra reliable low latency communication, URLLC, type; and if determining that the necessary parameter needs to be sent, sending, by the AMF network element, an initial context setup request message to the access network element, wherein the initial context setup request message carries the necessary parameter to the access network element, wherein the necessary parameter is a security context. receiving, by an access and management function, AMF, network element, a request message sent by an access network element, wherein the request message comprises indication information, and the indication information is used to indicate whether the AMF network element needs to send a necessary parameter to the access network element and is used to trigger an access stratum security mode command, AS SMC, procedure; determining, by the AMF network element based on the indication information carried in the request message, whether the necessary parameter needs to be sent to the access network element, comprising determining based on a type of a terminal device, whether the AS SMC procedure needs to be performed, wherein the AMF network element determines that the AS SMC procedure needs to be performed if the terminal device is of an enhanced mobile broadband, eMBB, type, and that the AS SMC procedure does not need to be performed if the terminal device is one of a massive machine type of communication, mMTC, type or an ultra reliable low latency communication, URLLC, type; and if determining that the necessary parameter needs to be sent, sending, by the AMF network element, an initial context setup request message to the access network element, wherein the initial context setup request message carries the necessary parameter to the access network element, wherein the necessary parameter is a security context.
A method comprising: obtaining measurements associated with one or more controlled variables related to a structure of creped tissue paper during production of the creped tissue paper; and generating at least one control signal that adjusts one or more manipulated variables associated with the production of the creped tissue paper in order to alter the structure of the creped tissue paper; wherein the one or more controlled variables include a caliper of the creped tissue paper; wherein the caliper of the creped tissue paper is calculated using a function: C = C 0 + C CS where C represents the caliper of the creped tissue paper, C 0 represents a base caliper for a given grade oftissue paper, and Ccs represents a crepe structure-dependent component ofthe caliper C; and wherein the crepe structure-dependent component Ccs of the caliper is calculated based on a dominant frequency ω of the creped tissue paper and a standard deviation σ r of an intensity of diffusely-reflected light from the creped tissue paper. obtaining measurements associated with one or more controlled variables related to a structure of creped tissue paper during production of the creped tissue paper; and generating at least one control signal that adjusts one or more manipulated variables associated with the production of the creped tissue paper in order to alter the structure of the creped tissue paper; wherein the one or more controlled variables include a caliper of the creped tissue paper; wherein the caliper of the creped tissue paper is calculated using a function: C = C 0 + C CS where C represents the caliper of the creped tissue paper, C 0 represents a base caliper for a given grade oftissue paper, and Ccs represents a crepe structure-dependent component ofthe caliper C; and wherein the crepe structure-dependent component Ccs of the caliper is calculated based on a dominant frequency ω of the creped tissue paper and a standard deviation σ r of an intensity of diffusely-reflected light from the creped tissue paper.
An apparatus for impregnating aquaculture feed pellets with water, characterized by: a direct conduit containing a flow of water arranged to transport aquaculture feed pellets to a feeding site without any circulation; wherein the direct conduit includes a reduced pressure zone thereby causing the aquaculture feed pellets to become impregnated with water. a direct conduit containing a flow of water arranged to transport aquaculture feed pellets to a feeding site without any circulation; wherein the direct conduit includes a reduced pressure zone thereby causing the aquaculture feed pellets to become impregnated with water.
A system comprising a universal mounting ring and an electronic device, the electronic device comprising a body, the universal mounting ring comprising: a. a planar U-shaped plate having a width, an outer perimeter edge and an inner perimeter edge; and b. at least one mounting tab comprising two parallel legs extending perpendicular to the U-shaped plate, a plurality of open-sided notches (90, 92) formed in each leg defining a plurality of mounting positions and frictionally engaging extensions extending outwardly from the body of the electronic device; and wherein each mounting position is located a different distance from the U-shaped plate. a. a planar U-shaped plate having a width, an outer perimeter edge and an inner perimeter edge; and b. at least one mounting tab comprising two parallel legs extending perpendicular to the U-shaped plate, a plurality of open-sided notches (90, 92) formed in each leg defining a plurality of mounting positions and frictionally engaging extensions extending outwardly from the body of the electronic device; and wherein each mounting position is located a different distance from the U-shaped plate.