mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a wireless communications system in which there is at least a first transceiver and a second transceiver which may communicate with each other, in which system use is made of the TDD, Time Division Duplex, principle for communication between said first and second transceiver so that said communication is divided into time frames each of which in turn can comprise a number of time slots, according to which method the first transceiver transmits a dedicated signal or channel for use as a communications quality indicator by the second transceiver, and the second transceiver reports measurements of the dedicated signal or channel to the first transceiver, the dedicated signal or channel being transmitted by the first transceiver in one or more TDD time slot, the method being characterized in that: - the second transceiver measures the individual signal strength of the dedicated signal or channel in at least a first and a second time slot of one and the same TDD frame and transmits measurement reports for each of those time slots to the first transceiver based on the individual measurements in said first and second time slots of the dedicated signal or channel, the measurement report including at least one suggested parameter which is the Recommended Transport Block Size (RTBS) or the Recommended Modulation Format. - the second transceiver measures the individual signal strength of the dedicated signal or channel in at least a first and a second time slot of one and the same TDD frame and transmits measurement reports for each of those time slots to the first transceiver based on the individual measurements in said first and second time slots of the dedicated signal or channel, the measurement report including at least one suggested parameter which is the Recommended Transport Block Size (RTBS) or the Recommended Modulation Format.
A system, comprising: an agitation system located within a containment room, comprising: a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; an agitation control system located outside of the containment room and coupled to the agitation system, comprising: a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a sprayer configured to spray the coating material. an agitation system located within a containment room, comprising: a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; an agitation control system located outside of the containment room and coupled to the agitation system, comprising: a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a sprayer configured to spray the coating material.
Surgical milling tool (10, 30) for removing bone or cartilaginous tissue, with a milling head (14, 50, 60) with a central holding element, wherein the central holding element has a through-opening along the rotational axis of the milling head in which a guide rod can be mounted rotatably in order to position the milling head, wherein a shank is connected with the central holding element by a bayonet connection, and wherein the bayonet connection comprises a bayonet slot on the milling head and a bayonet pin on the shank, characterised in that the central holding element has a guide slot for guiding the guide rod through into the through-opening.
A rotating actuator for an active aerodynamics system, defining a longitudinal axis (x) and comprising: a driving shaft provided with a first screw-thread and controlled by a motor for rotation about the longitudinal axis (x); a transmission shaft parallel to the driving shaft, provided with a second screw-thread and configured to couple with an adjustable part of the bodywork of a vehicle; a transmission coupled with the driving shaft and with the transmission shaft, said transmission comprising: a traveller having a first threaded part and a second threaded part; a first drive screw coupling between the first screw-thread and the first threaded part of the traveller; a second drive screw coupling between the second screw-thread and the second threaded part of the traveller; wherein said transmission is adapted to transmit the rotating motion of the driving shaft to the transmission shaft by means of a translating motion of the traveller relative to the driving shaft and the transmission shaft; wherein the driving shaft, the transmission shaft and the transmission are coaxial; said rotating actuator being characterized in that one of said driving shaft and transmission shaft is a hollow shaft and the other of said driving shaft and transmission shaft is arranged partially within the hollow shaft. a driving shaft provided with a first screw-thread and controlled by a motor for rotation about the longitudinal axis (x); a transmission shaft parallel to the driving shaft, provided with a second screw-thread and configured to couple with an adjustable part of the bodywork of a vehicle; a transmission coupled with the driving shaft and with the transmission shaft, said transmission comprising: a traveller having a first threaded part and a second threaded part; a first drive screw coupling between the first screw-thread and the first threaded part of the traveller; a second drive screw coupling between the second screw-thread and the second threaded part of the traveller; a traveller having a first threaded part and a second threaded part; a first drive screw coupling between the first screw-thread and the first threaded part of the traveller; a second drive screw coupling between the second screw-thread and the second threaded part of the traveller; wherein said transmission is adapted to transmit the rotating motion of the driving shaft to the transmission shaft by means of a translating motion of the traveller relative to the driving shaft and the transmission shaft; wherein the driving shaft, the transmission shaft and the transmission are coaxial;
A method performed by a computer system, comprising: receiving, over a network by a cloud gaming server computer, a request from a client device to initiate gameplay of a cloud video game; assigning the client device to a first data center from which to stream the cloud video game, wherein assigning the client device includes identifying user save data for the cloud video game as being stored at the first data center, and selecting the first data center based on the identification of the user save data; loading a cloud gaming machine at the first data center with the cloud video game using the identified user save data; substantially simultaneous with the loading of the cloud gaming machine, performing a stream test between the first data center and the client device to determine a quality of service of the streaming of the cloud video game; after completion of the loading of the cloud gaming machine and the performance of the stream test, initiating interactive gameplay of the cloud video game by streaming video data, generated from execution of the cloud video game by the cloud gaming machine, to the client device, and receiving input data from the client device to drive the execution of the cloud video game; using results of the stream test to determine whether to migrate the execution of the cloud video game to a second data center, and if so, then transferring a copy of the user save data to the second data center during the interactive gameplay and migrating the execution to the second data center. receiving, over a network by a cloud gaming server computer, a request from a client device to initiate gameplay of a cloud video game; assigning the client device to a first data center from which to stream the cloud video game, wherein assigning the client device includes identifying user save data for the cloud video game as being stored at the first data center, and selecting the first data center based on the identification of the user save data; loading a cloud gaming machine at the first data center with the cloud video game using the identified user save data; substantially simultaneous with the loading of the cloud gaming machine, performing a stream test between the first data center and the client device to determine a quality of service of the streaming of the cloud video game; after completion of the loading of the cloud gaming machine and the performance of the stream test, initiating interactive gameplay of the cloud video game by streaming video data, generated from execution of the cloud video game by the cloud gaming machine, to the client device, and receiving input data from the client device to drive the execution of the cloud video game; using results of the stream test to determine whether to migrate the execution of the cloud video game to a second data center, and if so, then transferring a copy of the user save data to the second data center during the interactive gameplay and migrating the execution to the second data center.
A functionalized elastomer comprising the reaction product of Y and Z, wherein Y is a copolymer of a first monomer and a second monomer, wherein the first monomer is selected from the group consisting of 1,3-butadiene, isoprene, and styrene; and the second monomer is selected from the group consisting of formula 1 and 2 wherein B is boron; O is oxygen; R 1 and R 2 are independently selected linear or branched alkyl groups containing from 1 to to 10 carbon atoms; R 3 is hydrogen or a linear or branched alkyl group containing from 1 to 10 carbon atoms; and R 4 is a linear or branched alkane diyl group containing from 1 to 20 carbon atoms, or a bridging aromatic group; and Z is a compound of formula 3 where R 5 is phenylene, a linear or branched alkane diyl group containing from 1 to 10 carbon atoms, or a combination of one or more phenylene groups and one or more linear or branched alkane diyl groups containing from 1 to 10 carbon atoms; and Q is hydrogen, bromine, or a functional group comprising at least one heteroatom selected from the group consisting of nitrogen, oxygen, phosphorus, silicon, and sulfur. wherein B is boron; O is oxygen; R 1 and R 2 are independently selected linear or branched alkyl groups containing from 1 to to 10 carbon atoms; R 3 is hydrogen or a linear or branched alkyl group containing from 1 to 10 carbon atoms; and R 4 is a linear or branched alkane diyl group containing from 1 to 20 carbon atoms, or a bridging aromatic group; and Z is a compound of formula 3 where R 5 is phenylene, a linear or branched alkane diyl group containing from 1 to 10 carbon atoms, or a combination of one or more phenylene groups and one or more linear or branched alkane diyl groups containing from 1 to 10 carbon atoms; and Q is hydrogen, bromine, or a functional group comprising at least one heteroatom selected from the group consisting of nitrogen, oxygen, phosphorus, silicon, and sulfur.
A method for manufacturing a sulfur-carbon composite comprising the steps of: (a) drying a porous carbon material at a temperature of 100°C to 150°C for 6 hours to 36 hours, (b) adding sulfur to the dried porous carbon material, the weight ratio of the sulfur and the porous carbon material being 9:1 to 5:5, and mixing the result by a ball milling process conducted at 100 rpm to 500 rpm for 30 minutes to 5 hours, and (c) heating the mixed material at a temperature of 130°C to 170°C, wherein sulfur of Rosickyite phase is contained in the resulting sulfur-carbon composite in an amount of more than 0 wt% to less than 10 wt%. (a) drying a porous carbon material at a temperature of 100°C to 150°C for 6 hours to 36 hours, (b) adding sulfur to the dried porous carbon material, the weight ratio of the sulfur and the porous carbon material being 9:1 to 5:5, and mixing the result by a ball milling process conducted at 100 rpm to 500 rpm for 30 minutes to 5 hours, and (c) heating the mixed material at a temperature of 130°C to 170°C,
An information processing device comprising: a data processing unit configured to execute decryption and playing processing of an encrypted content, wherein said data processing unit is configured to execute content playback propriety determination processing by applying an encrypted content signature file set in response to a content to be played; and wherein said encrypted content signature file includes a content hash list group including a hash value based on configuration data of a content, and signature data based on a content encryption key and said content hash list group; and wherein said data processing unit is configured to execute, with said content playback propriety determination processing, hash value matching processing between a hash value calculated from the configuration data of a content to be played, and a hash value for matching included in said content hash list group, and signature verification processing on said signature data, and the information processing device is configured to perform decryption and playing processing of said encrypted content under the condition that both of said hash value matching processing and said signature verification processing have been successful. a data processing unit configured to execute decryption and playing processing of an encrypted content, wherein said data processing unit is configured to execute content playback propriety determination processing by applying an encrypted content signature file set in response to a content to be played; and wherein said encrypted content signature file includes a content hash list group including a hash value based on configuration data of a content, and signature data based on a content encryption key and said content hash list group; a content hash list group including a hash value based on configuration data of a content, and signature data based on a content encryption key and said content hash list group; and wherein said data processing unit is configured to execute, with said content playback propriety determination processing, hash value matching processing between a hash value calculated from the configuration data of a content to be played, and a hash value for matching included in said content hash list group, and signature verification processing on said signature data, and the information processing device is configured to perform decryption and playing processing of said encrypted content under the condition that both of said hash value matching processing and said signature verification processing have been successful. hash value matching processing between a hash value calculated from the configuration data of a content to be played, and a hash value for matching included in said content hash list group, and signature verification processing on said signature data, and the information processing device is configured to perform decryption and playing processing of said encrypted content under the condition that both of said hash value matching processing and said signature verification processing have been successful.
A method for triggering, by a network node, a transfer of at least one presence information message between the network node and a client terminal, wherein the network node, the client terminal and a network element maintaining network status information and managing traffic are configured to communicate with each other over a communication network, the method comprising: - receiving information, in the network node, on a communication environment, the information on the communication environment represents a status of the communication network; - analyzing the received information at least by comparing information on the communication environment representing the status of the communication network at least partially with at least one predetermined value; - determining as a result of the analyzing step, that a condition of the communication environment is suitable for the transfer of the presence information message when the comparison of the received network condition information is satisfied in the analyzing step in view of the at least one predetermined value; and - upon a determination, in the determining step, that the communication environment is suitable for the transfer of the at least one presence information message, characterized in that further in the method requesting, by the network node, a permission from the network element managing traffic in the communication network to trigger the transfer of the presence information message, and in response to a receipt of a permission triggering the transfer of the at least one presence information message to the client terminal in response to the determination that the condition of the communication environment is suitable for the transfer of the at least one presence information message. - receiving information, in the network node, on a communication environment, the information on the communication environment represents a status of the communication network; - analyzing the received information at least by comparing information on the communication environment representing the status of the communication network at least partially with at least one predetermined value; - determining as a result of the analyzing step, that a condition of the communication environment is suitable for the transfer of the presence information message when the comparison of the received network condition information is satisfied in the analyzing step in view of the at least one predetermined value; and - upon a determination, in the determining step, that the communication environment is suitable for the transfer of the at least one presence information message,
A method for determining a status of a battery comprising determining an open-circuit first voltage ( V oc1) of the battery; performing a discharge pulse for the battery after determining the first voltage ( V oc1); determining a current ( I DP) through the battery during the discharge pulse; determining an open-circuit second voltage ( V oc2) of the battery after termination of the discharge pulse; and determining a status of the battery from the determined first and second voltages (V oc1, V oc2) and the determined current ( I DP). determining an open-circuit first voltage ( V oc1) of the battery; performing a discharge pulse for the battery after determining the first voltage ( V oc1); determining a current ( I DP) through the battery during the discharge pulse; determining an open-circuit second voltage ( V oc2) of the battery after termination of the discharge pulse; and determining a status of the battery from the determined first and second voltages (V oc1, V oc2) and the determined current ( I DP).
In a computing environment, a computer implemented method comprising: maintaining a scene graph; receiving a first request to implement a first change in a structure of the scene graph; receiving a second request to implement a second change in the structure; wherein the structure comprises a container, and further comprising, receiving a command to open the container prior to receiving the first and second requests, wherein, the container provides identity in that an application can hold a handle to it and includes procedural parameters and wherein the container comprises a basic identity node that contains drawing primitives; and wherein a drawing context opens the container and provides a surface through which a program code requests changes to data in the container, wherein the drawing context comprises a graph builder obtained from a container, wherein the graph builder can be used to add primitives, transforms, clips or other drawing operations to the container; characterized by implementing the changes to the first and second data atomically by making the changes only upon receipt of an instruction that requests implementation of the changes wherein implementing the changes comprises, writing change data to a change queue, wherein the instruction that requests implementation of the changes corresponds to a close command and wherein a batching mechanism defers the writing of any change to the queue until the close of the container, such that changes to the container occur as an atomic operation. maintaining a scene graph; receiving a first request to implement a first change in a structure of the scene graph; receiving a second request to implement a second change in the structure; wherein the structure comprises a container, and further comprising, receiving a command to open the container prior to receiving the first and second requests, wherein, the container provides identity in that an application can hold a handle to it and includes procedural parameters and wherein the container comprises a basic identity node that contains drawing primitives; and wherein a drawing context opens the container and provides a surface through which a program code requests changes to data in the container, wherein the drawing context comprises a graph builder obtained from a container, wherein the graph builder can be used to add primitives, transforms, clips or other drawing operations to the container; characterized by implementing the changes to the first and second data atomically by making the changes only upon receipt of an instruction that requests implementation of the changes wherein implementing the changes comprises, writing change data to a change queue, wherein the instruction that requests implementation of the changes corresponds to a close command and wherein a batching mechanism defers the writing of any change to the queue until the close of the container, such that changes to the container occur as an atomic operation.