mhurhangee/patent-ind-claim-en huggingface dataset:
An optical interconnection device comprising: an LSI circuit electrically connected to an electric wiring board ; plurality of optical modules arranged on a periphery of the LSI circuit; and liquid cooling mechanisms respectively placed on the LSI circuit and the optical modules, characterized in that the plurality of optical modules is arranged dispersed in a rectangular shape and the liquid cooling mechanisms include a cooling pipe arranged in a linear fashion along each side of the rectangular shape. an LSI circuit electrically connected to an electric wiring board ; plurality of optical modules arranged on a periphery of the LSI circuit; and liquid cooling mechanisms respectively placed on the LSI circuit and the optical modules, characterized in that the plurality of optical modules is arranged dispersed in a rectangular shape and the liquid cooling mechanisms include a cooling pipe arranged in a linear fashion along each side of the rectangular shape.
A method performed by a mobility management entity, MME, comprising: receiving, from a mobile switching centre, MSC, a request for continuity of a call during or after handover of a user equipment from a packet-switched connection to a circuit-switched connection; determining whether said call comprises an ITU-T T.140 real-time text protocol component; and informing the mobile switching centre, MSC, when it is determined that said call comprises the ITU-T T.140 real-time text protocol component. receiving, from a mobile switching centre, MSC, a request for continuity of a call during or after handover of a user equipment from a packet-switched connection to a circuit-switched connection; determining whether said call comprises an ITU-T T.140 real-time text protocol component; and informing the mobile switching centre, MSC, when it is determined that said call comprises the ITU-T T.140 real-time text protocol component.
A method of Hierarchical Asset Control Application process development comprising: accessing an equipment list; identifying industrial equipment elements; selecting an intelligent asset template from an intelligent asset template library to instantiate an intelligent agent for each of a plurality of the industrial equipment elements, aggregating more than one intelligent asset templates to instantiate an intelligent agent for incorporation with a smart asset, the smart asset being composed of one or more equipment elements; populating the selected template with operational constraints and operational objective data for each of the plurality of the industrial equipment elements; and connecting iteratively, the instantiated intelligent agents to develop a Hierarchical Asset Control Application, wherein connecting iteratively includes grouping related smart assets into smart asset groupings that define parent/child control relationship across smart assets; deriving a constraint set for each smart asset of the Hierarchical Asset Control Application; receiving objectives to be optimized; deriving an optimization of the Hierarchical Asset Control Application given the objectives and the constraints for controlling the operational efficiency of industrial operations. accessing an equipment list; identifying industrial equipment elements; selecting an intelligent asset template from an intelligent asset template library to instantiate an intelligent agent for each of a plurality of the industrial equipment elements, aggregating more than one intelligent asset templates to instantiate an intelligent agent for incorporation with a smart asset, the smart asset being composed of one or more equipment elements; populating the selected template with operational constraints and operational objective data for each of the plurality of the industrial equipment elements; and connecting iteratively, the instantiated intelligent agents to develop a Hierarchical Asset Control Application, wherein connecting iteratively includes grouping related smart assets into smart asset groupings that define parent/child control relationship across smart assets; deriving a constraint set for each smart asset of the Hierarchical Asset Control Application; receiving objectives to be optimized; deriving an optimization of the Hierarchical Asset Control Application given the objectives and the constraints for controlling the operational efficiency of industrial operations.
A method for determining the presence of crystalline silica particles in a sample comprising a plurality of particles in a gas, the method comprising: receiving first data generated based upon polarized light scattered by at least one particle of said plurality of particles, wherein said first data is based upon a difference between the light scattered by said at least one particle in a first and in a second direction, the first data being indicative of asymmetric scattering by the at least one particle; receiving second data generated based upon polarized light transmitted through at least one particle of said plurality of particles, characterized in that said second data is based upon a change in polarity of said light transmitted though said at least one particle, the second data being indicative of birefringence of the at least one particle; and determining the presence of crystalline silica particles in the sample based upon the first data and second data. receiving first data generated based upon polarized light scattered by at least one particle of said plurality of particles, wherein said first data is based upon a difference between the light scattered by said at least one particle in a first and in a second direction, the first data being indicative of asymmetric scattering by the at least one particle; receiving second data generated based upon polarized light transmitted through at least one particle of said plurality of particles, characterized in that said second data is based upon a change in polarity of said light transmitted though said at least one particle, the second data being indicative of birefringence of the at least one particle; and
A curable composition comprising - a fluoroelastomer (A) that contains a cyano group in a main chain and/or a side chain thereof, and - an amide compound (B) which has an azo structure and produces NH 3 when decomposed. - a fluoroelastomer (A) that contains a cyano group in a main chain and/or a side chain thereof, and - an amide compound (B) which has an azo structure and produces NH 3 when decomposed.
Assembly of a mudguard for a bicycle, comprising - a mudguard that is a single-part mudguard , comprising an inner wall surface which is configured to face a bicycle tyre after installation on a bicycle ; - a bar which is configured to connect the mudguard to a fixed part of the bicycle , and - a fastening member which is fastenable to the mudguard and by means of which the bar is fastenable to the mudguard at the height of the inner wall surface , wherein the fastening member comprises a base part with a gutter-shaped recess , and wherein the recess is covered and forms a passage, wherein the bar is configured to extend through this passage and can assume at least two positions in this passage which are rotated with respect to each other and in that the fastening member and/or the mudguard comprises one or several detaining means which limit the possible positions of the bar in the passage, so that the bar is able to assume two rotated end positions in the passage which extend with respect to each other according to a rotation angle characterized in that the base part is configured to extend with one side essentially against the inner wall surface , wherein this side comprises the gutter-shaped recess , so that this gutter-shaped recess is covered by the inner wall surface and the recess forms the said passage, and in that the inner wall surface , at least at the location of the recess , forms an uninterrupted continuous unit, so that the recess is completely covered by the inner wall surface . - a mudguard that is a single-part mudguard , comprising an inner wall surface which is configured to face a bicycle tyre after installation on a bicycle ; - a bar which is configured to connect the mudguard to a fixed part of the bicycle , and - a fastening member which is fastenable to the mudguard and by means of which the bar is fastenable to the mudguard at the height of the inner wall surface ,
A method of initiating a communication session with a wireless peripheral device , the method comprising: wirelessly broadcasting , with the peripheral device, a first set of advertising packets; receiving , at the peripheral device from a first central device , a request to initiate a first communication session; causing the peripheral device to establish and complete the first communication session with the first central device; and wirelessly broadcasting , with the peripheral device, a second set of advertising packets, wherein: each advertising packet of the second set of advertising packets comprises a data flag not included in any advertising packet of the first set of advertising packets, and the data flag comprises an indication of a type of device to initiate a communication session with the peripheral device. wirelessly broadcasting , with the peripheral device, a first set of advertising packets; receiving , at the peripheral device from a first central device , a request to initiate a first communication session; causing the peripheral device to establish and complete the first communication session with the first central device; and wirelessly broadcasting , with the peripheral device, a second set of advertising packets, wherein: each advertising packet of the second set of advertising packets comprises a data flag not included in any advertising packet of the first set of advertising packets, and the data flag comprises an indication of a type of device to initiate a communication session with the peripheral device. each advertising packet of the second set of advertising packets comprises a data flag not included in any advertising packet of the first set of advertising packets, and the data flag comprises an indication of a type of device to initiate a communication session with the peripheral device.
A method for implementing inner loop and closed loop power control, characterized by comprising: when User Equipment, UE, is in a soft handover status, sending, by a cell communicating with the UE in a base station, which cell belongs to a Radio Link Set, RLS, different from that of a serving cell of the UE, a fixed power control instruction, which is irrelevant to an actually measured Signal-to-Interference Ratio, SIR, of an uplink Dedicated Physical Channel, DPCH, of the UE, to instruct the UE to increase transmission power .
A cylinder head comprising: an intake-side wall part that upwardly extends from a cylinder head lower surface coupled to a cylinder block; a port circumferential wall part that forms therein an intake port communicating with a combustion chamber of an engine, and that has a resin part disposed along an inner surface thereof; an outer longitudinal rib that projects from an outer surface of the port circumferential wall part on a side of the cylinder head lower surface and that extends in a direction away from the intake-side wall part along a flow direction of intake air flowing inside the intake port; and a boss part that is bulged from the intake-side wall part on one end portion of the outer longitudinal rib and that has a hole part that discharges gas in the intake port when injection molding of the resin part is carried out. an intake-side wall part that upwardly extends from a cylinder head lower surface coupled to a cylinder block; a port circumferential wall part that forms therein an intake port communicating with a combustion chamber of an engine, and that has a resin part disposed along an inner surface thereof; an outer longitudinal rib that projects from an outer surface of the port circumferential wall part on a side of the cylinder head lower surface and that extends in a direction away from the intake-side wall part along a flow direction of intake air flowing inside the intake port; and a boss part that is bulged from the intake-side wall part on one end portion of the outer longitudinal rib and that has a hole part that discharges gas in the intake port when injection molding of the resin part is carried out.
A computer-implemented method of taking a vehicle out-of-service, comprising: obtaining, by one or more computing devices on-board an autonomous vehicle, data indicative of one or more parameters associated with the autonomous vehicle, wherein the autonomous vehicle is configured to provide a vehicle service to one or more users of the vehicle service; determining, by the one or more computing devices, an existence of a fault associated with the autonomous vehicle based at least in part on the one or more parameters associated with the autonomous vehicle; determining, by the one or more computing devices, a level of severity of the fault based at least in part on one or more characteristics of the fault; determining, by the one or more computing devices, an operational state of the autonomous vehicle based at least in part on the level of severity of the fault, wherein the operational state is indicative of whether the autonomous vehicle is in condition to provide the vehicle service; wherein in the event that the operational state indicates that the autonomous vehicle is in condition to provide the vehicle service to one or more current users of the autonomous vehicle, the autonomous vehicle is configured to complete the vehicle service provided to the one or more current users before the vehicle is out-of-service. obtaining, by one or more computing devices on-board an autonomous vehicle, data indicative of one or more parameters associated with the autonomous vehicle, wherein the autonomous vehicle is configured to provide a vehicle service to one or more users of the vehicle service; determining, by the one or more computing devices, an existence of a fault associated with the autonomous vehicle based at least in part on the one or more parameters associated with the autonomous vehicle; determining, by the one or more computing devices, a level of severity of the fault based at least in part on one or more characteristics of the fault; determining, by the one or more computing devices, an operational state of the autonomous vehicle based at least in part on the level of severity of the fault, wherein the operational state is indicative of whether the autonomous vehicle is in condition to provide the vehicle service; wherein in the event that the operational state indicates that the autonomous vehicle is in condition to provide the vehicle service to one or more current users of the autonomous vehicle, the autonomous vehicle is configured to complete the vehicle service provided to the one or more current users before the vehicle is out-of-service.
A communication method, comprising: acquiring (S110), g by a network device, configuration information of a signal, wherein the configuration information includes time resource information and sequence information of the signal, wherein the time resource information indicates one or more candidate time resource locations of the signal, and the sequence information indicates one or more candidate sequences of the signal, wherein the signal is used for cell identifier determination; selecting (S 120), by the network device, an actual time resource location from the one or more candidate time resource locations and an actual sequence from the one or more candidate sequences; generating and sending (S130), by the network device, a first signal through the actual time resource location and the actual sequence, wherein there is a correspondence between the actual time resource location of the first signal and random access configuration information. acquiring (S110), g by a network device, configuration information of a signal, wherein the configuration information includes time resource information and sequence information of the signal, wherein the time resource information indicates one or more candidate time resource locations of the signal, and the sequence information indicates one or more candidate sequences of the signal, wherein the signal is used for cell identifier determination; selecting (S 120), by the network device, an actual time resource location from the one or more candidate time resource locations and an actual sequence from the one or more candidate sequences; generating and sending (S130), by the network device, a first signal through the actual time resource location and the actual sequence, wherein there is a correspondence between the actual time resource location of the first signal and random access configuration information.
A process for preparing an acryloyloxysilane, the process comprising: 1) heating, at a temperature of from 50 to 160 °C a metal salt of a carboxylic acid having the formula [CR 2 2 =CR 1 COO - ] a M a+ (I), a haloorganoalkoxysilane having the formula XR 3 Si(OR 4 ) n R 5 3-n (II), a catalyst, and a combination of 2100 ppmw to 3500 ppmw water and 3100 ppmw to 3500 ppmw methanol, to form a mixture comprising an acryloyloxysilane and a metal halide having the formula M a+ X - a (III), wherein R 1 is H, R 7 COO - M a+ , or C 1 -C 6 hydrocarbyl, each R 2 is independently R 1 or [COO - ]M a+ , M a+ is an alkali metal cation or alkaline earth metal cation, a is 1 or 2, X is halo, R 3 is C 1 -C 6 hydrocarbylene, each R 4 is independently C 1 -C 10 hydrocarbyl, each R 5 is independently R 1 , R 7 is hydrocarbylene having from 1 to 6 carbon atoms, and n is an integer from 1 to 3; and 2) removing at least a portion of the metal halide from the mixture by filtration. 1) heating, at a temperature of from 50 to 160 °C a metal salt of a carboxylic acid having the formula [CR 2 2 =CR 1 COO - ] a M a+ (I), a haloorganoalkoxysilane having the formula XR 3 Si(OR 4 ) n R 5 3-n (II), a catalyst, and a combination of 2100 ppmw to 3500 ppmw water and 3100 ppmw to 3500 ppmw methanol, to form a mixture comprising an acryloyloxysilane and a metal halide having the formula M a+ X - a (III), wherein R 1 is H, R 7 COO - M a+ , or C 1 -C 6 hydrocarbyl, each R 2 is independently R 1 or [COO - ]M a+ , M a+ is an alkali metal cation or alkaline earth metal cation, a is 1 or 2, X is halo, R 3 is C 1 -C 6 hydrocarbylene, each R 4 is independently C 1 -C 10 hydrocarbyl, each R 5 is independently R 1 , R 7 is hydrocarbylene having from 1 to 6 carbon atoms, and n is an integer from 1 to 3; and 2) removing at least a portion of the metal halide from the mixture by filtration.
A method of decoding video data in accordance with a High Efficiency Video Coding (HEVC) standard, a multiview extension thereof, or a scalable extension thereof, the method comprising: decoding a value for vps_num_hrd_parameters; decoding, from a video parameter set (VPS) of a bitstream, a value for a vps_num_add_hrd_params; decoding, from said VPS, data that indicates a maximum number of sub-layers included in the bitstream, wherein each of the sub-layers of the bitstream corresponds to a playback frame rate of the video data, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; decoding a value for a syntax element that indicates a number of sub-layers of the bitstream for which hypothetical reference decoder (HRD) parameters are coded, wherein the value indicates that the number of sub-layers for which the HRD parameters are coded is less than the maximum number of sub-layers indicated by the VPS of the bitstream; for each integer value from the value for vps _num_hrd_params up to but not including a value equal to the value for vps_num_hrd_params added to the value for vps_num_add_hrd_params, decoding HRD parameters for the number of sub-layers as indicated by the value for the syntax element; and processing the bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters. decoding a value for vps_num_hrd_parameters; decoding, from a video parameter set (VPS) of a bitstream, a value for a vps_num_add_hrd_params; decoding, from said VPS, data that indicates a maximum number of sub-layers included in the bitstream, wherein each of the sub-layers of the bitstream corresponds to a playback frame rate of the video data, with each progressively higher sub-layer including all frames of the video data at that sub-layer and below that sub-layer; decoding a value for a syntax element that indicates a number of sub-layers of the bitstream for which hypothetical reference decoder (HRD) parameters are coded, wherein the value indicates that the number of sub-layers for which the HRD parameters are coded is less than the maximum number of sub-layers indicated by the VPS of the bitstream; for each integer value from the value for vps _num_hrd_params up to but not including a value equal to the value for vps_num_hrd_params added to the value for vps_num_add_hrd_params, decoding HRD parameters for the number of sub-layers as indicated by the value for the syntax element; and processing the bitstream using the HRD parameters by: decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters. decoding encoded pictures of the bitstream; storing the decoded pictures in a decoded picture buffer (DPB); and removing the decoded pictures from the DPB according to the HRD parameters.
A process for producing a fluorine-containing olefin represented by formula : CF 3 CA=CHB wherein one of A and B is F or Cl and the other is H, the process comprising reacting, in the presence of oxygen and a fluorination catalyst, anhydrous hydrogen fluoride with at least one chlorine-containing compound selected from the group consisting of a chlorine-containing alkane represented by formula CX 3 CClYCH 2 Z wherein each X independently represents F or Cl, Y is H or F, when Y is H, Z is Cl or F, and when Y is F, Z is H; a chlorine-containing alkane represented by formula CX 3 CH 2 CHX 2 wherein each X independently represents F or Cl, and at least one X is Cl; a chlorine-containing alkene represented by formula CX 3 CCl=CH 2 wherein each X independently represents F or Cl; a chlorine-containing alkene represented by formula CX 3 CH=CHX wherein each X independently represents F or Cl, and at least one X is Cl; a chlorine-containing alkene represented by formula CH 2 XCCl=CX 2 wherein each X independently represents F or Cl; and a chlorine-containing alkene represented by formula CHX 2 CH=CX 2 wherein each X independently represents F or Cl, the fluorination catalyst being a catalyst in which at least one metal element M selected from the group consisting of indium, gallium, cobalt, copper, nickel, zinc, and aluminum is present together with chromium, wherein the molar ratio of the at least one metal element M to the chromium is 96:4 to 65:35, and wherein the metal element M comprises crystalline nickel fluoride.