mhurhangee/patent-ind-claim-en huggingface dataset:
A drive gear assembly for rotatably driving a driven gear , said drive gear assembly comprising: a drive shaft extending longitudinally along an axis; a main drive gear operatively coupled to said drive shaft ; a scissor gear aligned coaxially with said main drive gear ; a scissor spring disposed and operatively coupled between said main drive gear and said scissor gear and biased therebetween wherein said main drive gear and said scissor gear rotate about said axis relative to each other; and an isolation mechanism operatively coupled between said main drive gear and said drive shaft for absorbing impulse loads generated by the driven gear when engaged with said main drive gear , characterized in that said isolation mechanism includes a drive bar fixedly secured to said drive shaft and an isolation spring operatively coupled between said drive bar and said main drive gear to rotatably couple said main drive gear to said drive shaft , wherein said main drive gear includes a base plate having at least one recessed cavity formed therein for receiving at least a portion of said drive bar and wherein said drive bar includes a hub fixedly secured to said drive shaft and at least one arm extending from said hub and received in said recessed cavity in said main drive gear . a drive shaft extending longitudinally along an axis; a main drive gear operatively coupled to said drive shaft ; a scissor gear aligned coaxially with said main drive gear ; a scissor spring disposed and operatively coupled between said main drive gear and said scissor gear and biased therebetween wherein said main drive gear and said scissor gear rotate about said axis relative to each other; and an isolation mechanism operatively coupled between said main drive gear and said drive shaft for absorbing impulse loads generated by the driven gear when engaged with said main drive gear , characterized in that said isolation mechanism includes a drive bar fixedly secured to said drive shaft and an isolation spring operatively coupled between said drive bar and said main drive gear to rotatably couple said main drive gear to said drive shaft , wherein said main drive gear includes a base plate having at least one recessed cavity formed therein for receiving at least a portion of said drive bar and wherein said drive bar includes a hub fixedly secured to said drive shaft and at least one arm extending from said hub and received in said recessed cavity in said main drive gear .
A single-component sealant or adhesive composition, comprising: a) an aqueous polymer dispersion comprising water and at least one water-dispersed polymer P, b) at least one water-dispersed or water-dissolved epoxy- or isocyanate-functional cross-linker C with a nominal epoxy- or isocyanate-functionality of at least 2, wherein said at least one water-dispersed polymer P has functional groups selected from carboxylic acid groups, amino groups, and hydroxyl groups, and wherein said epoxy- or isocyanate-functional cross-linker C has a molecular weight of at least 1000 g/mol or a number average molecular weight M n , determined by means of GPC against polystyrene as standard, of at least 1000 g/mol, and wherein the composition comprises between 0.1 and 50, preferably between 0.1 and 10 parts by weight of said epoxy- or isocyanate-functional cross-linker C per 100 parts by weight of said at least one water-dispersed polymer P, and wherein the sealant or adhesive composition is free of organic solvents. a) an aqueous polymer dispersion comprising water and at least one water-dispersed polymer P, b) at least one water-dispersed or water-dissolved epoxy- or isocyanate-functional cross-linker C with a nominal epoxy- or isocyanate-functionality of at least 2, wherein said at least one water-dispersed polymer P has functional groups selected from carboxylic acid groups, amino groups, and hydroxyl groups, and wherein said epoxy- or isocyanate-functional cross-linker C has a molecular weight of at least 1000 g/mol or a number average molecular weight M n , determined by means of GPC against polystyrene as standard, of at least 1000 g/mol, and wherein the composition comprises between 0.1 and 50, preferably between 0.1 and 10 parts by weight of said epoxy- or isocyanate-functional cross-linker C per 100 parts by weight of said at least one water-dispersed polymer P, and wherein the sealant or adhesive composition is free of organic solvents.
A data transmission protection method, comprising: setting (S201), by a station, two network allocation vectors, NAVs, including one intra-NAV and one inter-NAV, on all subchannel frequency bands in a channel transmission bandwidth of a basic service set, BSS, associated with the station; receiving (S202), by the station, a physical layer convergence procedure protocol data unit, PPDU; and selecting (S204), by the station, all channel transmission bandwidth as available frequency bands and determining a frequency domain resource in the all channel transmission bandwidth to send a data frame to respond to the PPDU based on a frequency domain resource scheduling information in a trigger frame when a current value of the inter-NAV is equal to 0, the PPDU includes the trigger frame sent by an access point in the basic service set, BSS, associated with the station and a scheduling target of the PPDU includes the station; and updating a current value of the intra-NAV to 0, when the PPDU includes a received contention free-end, CF-END, frame that comes from the BSS; and updating a current value of the inter-NAV to 0, when the PPDU includes a received contention free-end, CF-END, frame that comes from an overlapping basic service set, OBSS; wherein the intra-NAV is used to record duration in which the BSS forbids the station to transmit data on the all channel transmission bandwidth, and the inter-NAV is used to record duration in which a OBSS forbids the station to transmit data on the all channel transmission bandwidth. setting (S201), by a station, two network allocation vectors, NAVs, including one intra-NAV and one inter-NAV, on all subchannel frequency bands in a channel transmission bandwidth of a basic service set, BSS, associated with the station; receiving (S202), by the station, a physical layer convergence procedure protocol data unit, PPDU; and selecting (S204), by the station, all channel transmission bandwidth as available frequency bands and determining a frequency domain resource in the all channel transmission bandwidth to send a data frame to respond to the PPDU based on a frequency domain resource scheduling information in a trigger frame when a current value of the inter-NAV is equal to 0, the PPDU includes the trigger frame sent by an access point in the basic service set, BSS, associated with the station and a scheduling target of the PPDU includes the station; and updating a current value of the intra-NAV to 0, when the PPDU includes a received contention free-end, CF-END, frame that comes from the BSS; and updating a current value of the inter-NAV to 0, when the PPDU includes a received contention free-end, CF-END, frame that comes from an overlapping basic service set, OBSS; wherein the intra-NAV is used to record duration in which the BSS forbids the station to transmit data on the all channel transmission bandwidth, and the inter-NAV is used to record duration in which a OBSS forbids the station to transmit data on the all channel transmission bandwidth.
A work machine comprising: a lower traveling body ; an attachment; and a controller ; characterised in that the controller comprises a reservation target functional unit , a reservation reception unit and a reservation execution unit , wherein, the reservation reception unit is configured to receive a reservation related to an execution of a reservation target function including one or more of an automatic task function, a function of self-diagnosis, and an operation restriction function in accordance with an input received by the work machine or in accordance with a reservation instruction signal received by the controller from an external apparatus and the reservation execution unit is configured to start the reservation target functional unit which executes the reservation target function of the reservation, based on an execution condition designated by the reservation. a lower traveling body ; an attachment; and a controller ; characterised in that the controller comprises a reservation target functional unit , a reservation reception unit and a reservation execution unit , wherein, the reservation reception unit is configured to receive a reservation related to an execution of a reservation target function including one or more of an automatic task function, a function of self-diagnosis, and an operation restriction function in accordance with an input received by the work machine or in accordance with a reservation instruction signal received by the controller from an external apparatus and the reservation execution unit is configured to start the reservation target functional unit which executes the reservation target function of the reservation, based on an execution condition designated by the reservation.
A T7 ribonucleic acid (RNA) polymerase variant comprising an amino acid sequence at least 95%, at least 98%, or at least 99% identical to SEQ ID NO:1 modified to include an amino acid substitution corresponding to position G47 of SEQ ID NO:1; wherein the amino acid substitution is alanine (G47A).
A method for preparing a cathode electrode, comprising the following steps: under a condition of continuous stirring, mixing a binder with N-methylpyrrolidone, and adding a conductive material, a cathode additive, and a cathode material to obtain a cathode slurry, the cathode additive having been prepared by dispersing a carbon-coated lithium manganese iron phosphate in an organic solvent to obtain the cathode additive and wherein the cathode additive comprises, in percentage by mass, 10% to 40% carbon-coated lithium manganese iron phosphate and the organic solvent, wherein the carbon-coated lithium manganese iron phosphate is dispersed in the organic solvent, and a median particle diameter of the carbon-coated lithium manganese iron phosphate is 30 nm to 100 nm, a mass ratio of the cathode material to the carbon-coated lithium manganese iron phosphate in the cathode additive is 80 : 20 to 99 : 1; and preparing the cathode slurry into the cathode electrode; wherein the cathode material is at least one selected from a group consisting of a nickel cobalt manganese ternary material, a nickel cobalt aluminum ternary material, lithium nickel manganese oxide, lithium manganate, and lithium cobaltate. under a condition of continuous stirring, mixing a binder with N-methylpyrrolidone, and adding a conductive material, a cathode additive, and a cathode material to obtain a cathode slurry, the cathode additive having been prepared by dispersing a carbon-coated lithium manganese iron phosphate in an organic solvent to obtain the cathode additive and wherein the cathode additive comprises, in percentage by mass, 10% to 40% carbon-coated lithium manganese iron phosphate and the organic solvent, wherein the carbon-coated lithium manganese iron phosphate is dispersed in the organic solvent, and a median particle diameter of the carbon-coated lithium manganese iron phosphate is 30 nm to 100 nm, a mass ratio of the cathode material to the carbon-coated lithium manganese iron phosphate in the cathode additive is 80 : 20 to 99 : 1; and preparing the cathode slurry into the cathode electrode; wherein the cathode material is at least one selected from a group consisting of a nickel cobalt manganese ternary material, a nickel cobalt aluminum ternary material, lithium nickel manganese oxide, lithium manganate, and lithium cobaltate.
A method implemented by a network node in a communication network, comprising: assigning , to a user equipment, UE, a radio network temporary identity RNTI, comprised in one of a first number of groups of RNTIs, the first number of groups corresponding to an aggregation level, and the UE is associated with the one group; wherein for the first number of groups of RNTIs, different UEs are associated with different groups corresponding to different control channel elements, CCEs; and wherein each group comprises multiple RNTIs, and wherein the multiple RNTIs of each group are assigned to different UEs associated with the group randomly or in sequence. assigning , to a user equipment, UE, a radio network temporary identity RNTI, comprised in one of a first number of groups of RNTIs, the first number of groups corresponding to an aggregation level, and the UE is associated with the one group; wherein for the first number of groups of RNTIs, different UEs are associated with different groups corresponding to different control channel elements, CCEs; and wherein each group comprises multiple RNTIs, and wherein the multiple RNTIs of each group are assigned to different UEs associated with the group randomly or in sequence.
A method for controlling brakes, comprising: receiving, by a controller, a first wheel speed from a first wheel speed sensor of a first wheel arrangement; receiving, by the controller, a second wheel speed from a second wheel speed sensor of a second wheel arrangement; calculating, by the controller, a pressure correction; and adjusting, by the controller, a pressure command for at least one of the first wheel arrangement and the second wheel arrangement characterised in that the pressure correction is calculated using equation Δ P_j = ± I wh _ x ω ̇ xR − ω ̇ xj A ⋅ k ⋅ n ⋅ R b ⋅ μ cc , wherein Δ P_j denotes the brake pressure correction, I wh_x denotes a rotational moment of inertia of at least one of the first wheel arrangement and the second wheel arrangement, ω̇ xr denotes a wheel deceleration of at least one of the first wheel arrangement and the second wheel arrangement, ω̇ xj denotes a wheel deceleration of the other of the first wheel arrangement and the second wheel arrangement, A denotes a piston area, k denotes a number of carbon friction surfaces, n denotes a number of brake stacks, R b denotes a brake force torque arm, and μ cc denotes a coefficient of friction. receiving, by a controller, a first wheel speed from a first wheel speed sensor of a first wheel arrangement; receiving, by the controller, a second wheel speed from a second wheel speed sensor of a second wheel arrangement; calculating, by the controller, a pressure correction; and adjusting, by the controller, a pressure command for at least one of the first wheel arrangement and the second wheel arrangement characterised in that the pressure correction is calculated using equation Δ P_j = ± I wh _ x ω ̇ xR − ω ̇ xj A ⋅ k ⋅ n ⋅ R b ⋅ μ cc , wherein Δ P_j denotes the brake pressure correction, I wh_x denotes a rotational moment of inertia of at least one of the first wheel arrangement and the second wheel arrangement, ω̇ xr denotes a wheel deceleration of at least one of the first wheel arrangement and the second wheel arrangement, ω̇ xj denotes a wheel deceleration of the other of the first wheel arrangement and the second wheel arrangement, A denotes a piston area, k denotes a number of carbon friction surfaces, n denotes a number of brake stacks, R b denotes a brake force torque arm, and μ cc denotes a coefficient of friction.
Driver assistance controller for a vehicle, in particular motor vehicle, having at least one function module for performing different safety functions, having an evaluation module (A) for evaluating sensor data of the vehicle, having a decision module (B) for determining at least one safety function to be performed on the basis of the evaluation of the sensor data, and having an actuation module (C) for actuating an actuator system of the vehicle on the basis of the determined safety function, characterized in that provision is made for a plurality of function modules for performing the different safety functions, wherein each function module in each case has an evaluation module (A), a decision module (B) and an actuation module (C), and in that provision is made for a control module that determines which of the function modules is operated on the basis of the sensor data.
Use of polyorganosiloxanes or silanes for the treatment of lignocellulosic materials, characterized therein that the polyorganosiloxanes are linear, branched or cyclic polyorganosiloxanes, which in the number average consist of 2 to 30 siloxy units, which are selected from the group consisting of: wherein the residues R 1 represent organic residues, which may be the same or different from each other, with the proviso, that at least one residue R 1 is a residue R F , which contains a functional group F, which is selected from the group of functional groups, which consists of: - zwitterionic groups, - carboxylic acid/carboxylate groups, and - acyloxy groups bonded to Si via O, and characterized in that the silanes have the formula (I) Si-(R 1 ) 4 (I) wherein the residues R 1 are defined as above, with the proviso, that at least one residue R 1 is a residue R F , which contains a functional group F, which is defined as above, and at least one of the residues R 1 is bonded to the silicon atom via a hetero atom and at least one of the residues R 1 is bonded to the silicon atom via a carbon atom, or the formula (II) wherein R 1 is the same or different and is as defined for formula (I), and R 3 is a divalent linear, branched, cyclic, aliphatic, unsaturated or aromatic hydrocarbon residue with up to 30 carbon atoms, which may contain one or more groups selected from -O-, -NR 4 -, wherein R 4 is hydrogen or a C1-C22 alkyl, -C(O)- and -C(S)-, and can be optionally substituted by a hydroxy group and is bonded to the silicon atom via carbon, and of the salts thereof. - zwitterionic groups, - carboxylic acid/carboxylate groups, and - acyloxy groups bonded to Si via O,
A method for activating a co-existence working mode, comprising: transmitting , by a user equipment of a first communication system to a base station in the first communication system, an activation request for requesting to enter a co-existence working mode in which the user equipment performs a first communication with the base station and performs a second communication with an apparatus of a second communication system, which is different from the first communication system, by using different transmission resources; receiving , by the user equipment , an activation response including information indicating a co-existence working mode appointed for the user equipment by the base station ; and activating , by the user equipment , the appointed co-existence working mode according to configuration information of the co-existence working mode after the activation response is received by the user equipment , wherein configuration information of two or more co-existence working modes is pre-configured for the user equipment by the base station and is stored in the user equipment before the user equipment transmits the activation request, and wherein, after interference between the first communication system and the second communication system is detected by the user equipment , the activation request, which includes information of a co-existence working mode selected by the user equipment according to a type of the interfering system, is transmitted. transmitting , by a user equipment of a first communication system to a base station in the first communication system, an activation request for requesting to enter a co-existence working mode in which the user equipment performs a first communication with the base station and performs a second communication with an apparatus of a second communication system, which is different from the first communication system, by using different transmission resources; receiving , by the user equipment , an activation response including information indicating a co-existence working mode appointed for the user equipment by the base station ; and activating , by the user equipment , the appointed co-existence working mode according to configuration information of the co-existence working mode after the activation response is received by the user equipment , wherein configuration information of two or more co-existence working modes is pre-configured for the user equipment by the base station and is stored in the user equipment before the user equipment transmits the activation request, and wherein, after interference between the first communication system and the second communication system is detected by the user equipment , the activation request, which includes information of a co-existence working mode selected by the user equipment according to a type of the interfering system, is transmitted.
A plastic container containing a liquid dishwasher machine cleaner, wherein the plastic container has a neck ; wherein the neck incorporates a plug which is dissipated in operation of the dishwasher to release the contents of the plastic container ; wherein the plastic container is characterised in that it is adapted for placement within a crockery rack between consecutive pins of the crockery rack within an automatic dishwasher; wherein the plastic container is shaped such that it has a minimum length (y) of 100 mm and a maximum width (x) of less than 40mm; and wherein the maximum width to length ratio of the plastic container is less than 1:3. wherein the plastic container has a neck ; wherein the neck incorporates a plug which is dissipated in operation of the dishwasher to release the contents of the plastic container ; wherein the plastic container is characterised in that it is adapted for placement within a crockery rack between consecutive pins of the crockery rack within an automatic dishwasher; wherein the plastic container is shaped such that it has a minimum length (y) of 100 mm and a maximum width (x) of less than 40mm; and wherein the maximum width to length ratio of the plastic container is less than 1:3.
A method for generating lattice infill structures for an object designed for construction via additive manufacturing, the method comprising: accessing an object design to be constructed through additive manufacturing; in a first step, discretizing the object design into coarse geometric elements , resulting in a coarsely discretized object design , wherein each coarse geometric element is characterized with a determined average latticed density value respectively; in a second step, generating a lattice infill, wherein lattices are generated from the determined average latticed density values through a local topology optimization, wherein a lattice infill structure is generated from a partitioned segment of the coarsely discretized object design encompassing a portion of the coarse geometric elements (from par. 37-38), wherein the local topology optimization uses the average latticed density values applicable to the partitioned segment as local density constraints; and using said object design for constructing the object by additive manufacturing. accessing an object design to be constructed through additive manufacturing; in a first step, discretizing the object design into coarse geometric elements , resulting in a coarsely discretized object design , wherein each coarse geometric element is characterized with a determined average latticed density value respectively; in a second step, generating a lattice infill, wherein lattices are generated from the determined average latticed density values through a local topology optimization, wherein a lattice infill structure is generated from a partitioned segment of the coarsely discretized object design encompassing a portion of the coarse geometric elements (from par. 37-38), wherein the local topology optimization uses the average latticed density values applicable to the partitioned segment as local density constraints; and using said object design for constructing the object by additive manufacturing.