mhurhangee/ep-ind-claims huggingface dataset:
A system for measuring noise data and determining device model element values of a device under test, comprising: an impedance tuner coupled to an input of the DUT for presenting a controllable, variable impedance to the DUT; a noise receiver coupled to an output of the DUT; and a controller coupled to the impedance tuner and the noise receiver for controlling measurement parameters of the system, the controller comprising: a processor; a memory for storing measurement data; a device model type database storing at least one device model type; the processor configured to control the test system to carry out noise data measurements on the DUT and to determine element values of the device model from raw data obtained from the measurements on the DUT. an impedance tuner coupled to an input of the DUT for presenting a controllable, variable impedance to the DUT; a noise receiver coupled to an output of the DUT; and a controller coupled to the impedance tuner and the noise receiver for controlling measurement parameters of the system, the controller comprising: a processor; a memory for storing measurement data; a device model type database storing at least one device model type; the processor configured to control the test system to carry out noise data measurements on the DUT and to determine element values of the device model from raw data obtained from the measurements on the DUT. a processor; a memory for storing measurement data; a device model type database storing at least one device model type; the processor configured to control the test system to carry out noise data measurements on the DUT and to determine element values of the device model from raw data obtained from the measurements on the DUT.
A system for migration from a first virtual machine to a second virtual machine in a virtual execution system, comprising: a computer comprising a processor and a memory having computer-executable instructions stored thereupon which, when executed by the processor, cause the computer to: at the second virtual machine: establish connectivity of a plurality of running connections between the second virtual machine and one or more client devices based, at least in part, upon a captured connectivity state of a plurality of running connections between the first virtual machine and the one or more client devices, wherein an application executing on the first virtual machine and a guest operating system executing on the first virtual machine are in a stable state; establish state of a second instance of the guest operating system executing on the second virtual machine based, at least in part, upon a captured state of a first instance of the guest operating system; establish state of a second instance of an application executing on the second virtual machine based, at least in part, upon a captured state of a first instance of the application; translate a socket handle of a first instance of the application to the second instance of the application; and synchronize the state of the second instance of the application with the state of the second instance of the operating system. establish connectivity of a plurality of running connections between the second virtual machine and one or more client devices based, at least in part, upon a captured connectivity state of a plurality of running connections between the first virtual machine and the one or more client devices, wherein an application executing on the first virtual machine and a guest operating system executing on the first virtual machine are in a stable state; establish state of a second instance of the guest operating system executing on the second virtual machine based, at least in part, upon a captured state of a first instance of the guest operating system; establish state of a second instance of an application executing on the second virtual machine based, at least in part, upon a captured state of a first instance of the application; translate a socket handle of a first instance of the application to the second instance of the application; and synchronize the state of the second instance of the application with the state of the second instance of the operating system.
A biodegradable disposable absorbent article (100/600) comprising: a non-woven inner layer comprising natural fibers; a non-woven outer layer comprising natural fibers and a hydrophobic treatment comprising dendrimer wax applied to a top surface of the outer layer; and a core comprising natural fibers or fibrous material positioned between the inner layer and the outer layer; wherein the treatment is applied at 100% to 200% by weight add on. a non-woven inner layer comprising natural fibers; a non-woven outer layer comprising natural fibers and a hydrophobic treatment comprising dendrimer wax applied to a top surface of the outer layer; and a core comprising natural fibers or fibrous material positioned between the inner layer and the outer layer;
Housing element for a drug delivery device, the housing element comprising a longitudinal axis (l) and defining an interior space for receiving components (11, 12) of a drive mechanism of the drug delivery device and at least a portion of a cartridge of the drug delivery device, wherein the housing element comprises an engagement feature for axially constraining the housing element to a cartridge holder of the drug delivery device, characterized in that the housing element further comprises at least one crush web protruding radially inwards into the interior space, wherein the at least one crush web is angled relative to the longitudinal axis (l) of the housing element by at least 3° such that when the cartridge is introduced into the interior space the at least one crush web folds radially outwards.
An electrically actuatable parking brake device for a vehicle, comprising an electrically actuatable bistable valve having - a first port that is connected via a first line section to a compressed air supply inlet of the parking brake device and via a second line section to a first output port for a trailer control module, - a second port that directly or indirectly effects a change in pressure at a spring-loaded brake cylinder port via a third line section and is connected via a fourth line section to a second output port for a trailer control module, - a third port that is connected to an air vent, - there also being provided a relay valve having a pneumatic control inlet, this pneumatic control inlet being connected via the third line section to the second port in order indirectly to effect the change in pressure at the spring-loaded brake cylinder port, characterised in that an electric motor switches the electrically operated bistable valve between a first switching position and a second switching position via a drive, and that arranged in the first line section is a brake test valve device suitable for venting the pneumatic control inlet independently of a pressure level provided at the second port. - a first port that is connected via a first line section to a compressed air supply inlet of the parking brake device and via a second line section to a first output port for a trailer control module, - a second port that directly or indirectly effects a change in pressure at a spring-loaded brake cylinder port via a third line section and is connected via a fourth line section to a second output port for a trailer control module, - a third port that is connected to an air vent, - there also being provided a relay valve having a pneumatic control inlet, this pneumatic control inlet being connected via the third line section to the second port in order indirectly to effect the change in pressure at the spring-loaded brake cylinder port, - a third port that is connected to an air vent, - there also being provided a relay valve having a pneumatic control inlet, this pneumatic control inlet being connected via the third line section to the second port in order indirectly to effect the change in pressure at the spring-loaded brake cylinder port,
A centrifuge comprising: a driving unit; a rotor configured to be rotated by the driving unit and hold a sample; a control unit configured to control rotation of the driving unit; and a communication controller configured to communicate with an external network, characterised in that the control unit has an automatic transmission mode in which operation data is collected at predetermined intervals while the centrifuge is operating and the operation data is periodically transmitted to a data managing apparatus through the network spontaneously even if the data managing apparatus does not send an operation data transmission request. a driving unit; a rotor configured to be rotated by the driving unit and hold a sample; a control unit configured to control rotation of the driving unit; and a communication controller configured to communicate with an external network, characterised in that the control unit has an automatic transmission mode in which operation data is collected at predetermined intervals while the centrifuge is operating and the operation data is periodically transmitted to a data managing apparatus through the network spontaneously even if the data managing apparatus does not send an operation data transmission request.
A method for autonomously controlling movements of container handling vehicles operating in a storage and retrieval system comprising a grid structure with storage columns and a corresponding rail system above the storage columns for guiding movements of the vehicles adapted for transferring storage containers to and from the storage columns, where each vehicle comprises a vehicle controller connected to driving means and sensors for controlling movements of the vehicle along the rail system relative to movements of other vehicles, where the method is characterized in performing the following steps in the vehicle controller of each vehicle: a) using a map defining rail layout according to two-dimensional coordinates corresponding to grid cells defined by the circumference of the horizontal extent of storage columns of the storage and retrieval system and defining traffic rules for each grid cell and its corresponding rails, and defining time slots for each grid cell for when the traffic rules are applicable, the traffic rules define where and when vehicles can move on the rail system, and where the map is the same for all vehicles operating in the storage and retrieval system; b) synchronizing the vehicle controller to a clock common for all vehicles; c) receiving an instruction from a master controller instructing the vehicle to move to a specified destination on the rail system relative to the map; d) letting the vehicle controller determine a route to follow on the rail system from a current position of the vehicle to the specified destination based on the map, the traffic rules, distance to other vehicles and movements of the other vehicles; e) controlling the movements of the vehicle along the rail system from its current position to the specified destination according to the determined route, and f) repeating steps d) and e) until the vehicle has reached the specified destination. a) using a map defining rail layout according to two-dimensional coordinates corresponding to grid cells defined by the circumference of the horizontal extent of storage columns of the storage and retrieval system and defining traffic rules for each grid cell and its corresponding rails, and defining time slots for each grid cell for when the traffic rules are applicable, the traffic rules define where and when vehicles can move on the rail system, and where the map is the same for all vehicles operating in the storage and retrieval system; b) synchronizing the vehicle controller to a clock common for all vehicles; c) receiving an instruction from a master controller instructing the vehicle to move to a specified destination on the rail system relative to the map; d) letting the vehicle controller determine a route to follow on the rail system from a current position of the vehicle to the specified destination based on the map, the traffic rules, distance to other vehicles and movements of the other vehicles; e) controlling the movements of the vehicle along the rail system from its current position to the specified destination according to the determined route, and f) repeating steps d) and e) until the vehicle has reached the specified destination.
Method for encoding video data, the video data being structured into groups of frames, wherein the frames within a group have an initial sequential order (SEQGOP) and initial sequence numbers (1,...,16), and wherein motion compensated temporal filtering of frames is used on a plurality of temporal decomposition levels, including the generation of motion vectors, the method comprising adaptive frame ordering including the steps of - permuting K frames, K being a number lower or equal to the number of frames of the GOP; - performing a motion estimation on successive subsets of the permuted frames, wherein for each subset a local criterion value is calculated, the local criterion value being a measure for the similarity between the frames in the subset, and storing the local criterion value; - computing for the current permutation a global criterion value from said stored local criterion values, wherein the global criterion value is a measure for the coding cost resulting from the current permutation of the frames, the coding cost being the amount of bits used for encoding; - storing the global criterion value of the current permutation and an identifier associated with the current permutation; - repeating for a plurality of, or all possible, frame order permutations said steps of permuting K frames, performing motion estimation on subsets of the permuted frames, wherein said local criterion values are calculated, computing a global criterion value and storing the global criterion value associated with an identifier for the respective permutation; - choosing from the processed permutations the one with the lowest coding cost as the initial order of the frames; and - filtering the frames of the first temporal level in the chosen sequential order of frames. - permuting K frames, K being a number lower or equal to the number of frames of the GOP; - performing a motion estimation on successive subsets of the permuted frames, wherein for each subset a local criterion value is calculated, the local criterion value being a measure for the similarity between the frames in the subset, and storing the local criterion value; - computing for the current permutation a global criterion value from said stored local criterion values, wherein the global criterion value is a measure for the coding cost resulting from the current permutation of the frames, the coding cost being the amount of bits used for encoding; - storing the global criterion value of the current permutation and an identifier associated with the current permutation; - repeating for a plurality of, or all possible, frame order permutations said steps of permuting K frames, performing motion estimation on subsets of the permuted frames, wherein said local criterion values are calculated, computing a global criterion value and storing the global criterion value associated with an identifier for the respective permutation; - choosing from the processed permutations the one with the lowest coding cost as the initial order of the frames; and - filtering the frames of the first temporal level in the chosen sequential order of frames.
Processing circuit for an X-ray sensor for collecting at least a first pixel information of a first pixel circuit and a second pixel information of a second pixel circuit, each pixel comprising a first photodiode and a first source follower, a cathode of the first photodiode being connected with a gate of the first source follower, the processing circuit comprises: an amplifier, a feedback loop, a first collecting device, wherein the amplifier comprises a first amplifier input, a second amplifier input and an amplifier output, wherein the feedback loop comprises a feedback loop input and a feedback loop output, wherein the first amplifier input is connected with the first collecting device, wherein the second amplifier input is connected with the feedback loop output; wherein the first collecting device is adapted to be connected with the first pixel circuit of the X-ray sensor, wherein the first collecting device is adapted to be connected with the second pixel circuit of the X-ray sensor, wherein the feedback loop input is connected with the output of the amplifier, characterized in that the feedback loop comprises a first transfer function, which first transfer function is substantially identical to a second transfer function of one of a pixel of the X-ray sensor, and in that the feedback loop comprises a second photodiode and a second source follower, a cathode of the second photodiode being connected with a gate of the second source follower. an amplifier, a feedback loop, a first collecting device, wherein the amplifier comprises a first amplifier input, a second amplifier input and an amplifier output, wherein the feedback loop comprises a feedback loop input and a feedback loop output, wherein the first amplifier input is connected with the first collecting device, wherein the second amplifier input is connected with the feedback loop output; wherein the first collecting device is adapted to be connected with the first pixel circuit of the X-ray sensor, wherein the first collecting device is adapted to be connected with the second pixel circuit of the X-ray sensor, wherein the feedback loop input is connected with the output of the amplifier, characterized in that the feedback loop comprises a first transfer function, which first transfer function is substantially identical to a second transfer function of one of a pixel of the X-ray sensor, and in that the feedback loop comprises a second photodiode and a second source follower, a cathode of the second photodiode being connected with a gate of the second source follower.
A maraging steel excellent in fatigue characteristics, consisting of, in terms of % by mass: C: ≤0.015%, Ni: from 12.0 to 20.0%, Mo: from 3.0 to 6.0%, Co: from 5.0 to 13.0%, Al: from 0.01 to 0.3%, Ti: from 0.2 to 2.0%, O: ≤0.0020%, N: ≤0.0020%, and Zr: from 0.001 to 0.02%, optionally B: ≤0.010%, Mg: ≤0.003%, and Ca: ≤0.003%. with the balance being Fe and unavoidable impurities. C: ≤0.015%, Ni: from 12.0 to 20.0%, Mo: from 3.0 to 6.0%, Co: from 5.0 to 13.0%, Al: from 0.01 to 0.3%, Ti: from 0.2 to 2.0%, O: ≤0.0020%, N: ≤0.0020%, and Zr: from 0.001 to 0.02%, optionally B: ≤0.010%, Mg: ≤0.003%, and Ca: ≤0.003%. with the balance being Fe and unavoidable impurities.
A method for proactive upstream scheduling of flows in a point-to-multipoint communications network, comprising: predicting a user average data rate for a cable modem (20a-20b); establishing a minimum bandwidth grant size and a maximum bandwidth grant size for the cable modem (20a-20b) based on the predicted user average data rate; receiving from the cable modem (20a-20b) a request for a particular amount of bandwidth; wherein the method is characterized by the steps of: performing an overgrant if the particular amount of bandwidth is less than the minimum bandwidth grant size, wherein the overgrant comprises granting to the cable modem (20a-20b) more than the requested particular amount of bandwidth; and performing an undergrant if the particular amount of bandwidth is greater than the maximum bandwidth grant size, wherein the undergrant comprises granting to the cable modem (20a-20b) less than the requested particular amount of bandwidth. predicting a user average data rate for a cable modem (20a-20b); establishing a minimum bandwidth grant size and a maximum bandwidth grant size for the cable modem (20a-20b) based on the predicted user average data rate; receiving from the cable modem (20a-20b) a request for a particular amount of bandwidth; wherein the method is characterized by the steps of: performing an overgrant if the particular amount of bandwidth is less than the minimum bandwidth grant size, wherein the overgrant comprises granting to the cable modem (20a-20b) more than the requested particular amount of bandwidth; and performing an undergrant if the particular amount of bandwidth is greater than the maximum bandwidth grant size, wherein the undergrant comprises granting to the cable modem (20a-20b) less than the requested particular amount of bandwidth. performing an overgrant if the particular amount of bandwidth is less than the minimum bandwidth grant size, wherein the overgrant comprises granting to the cable modem (20a-20b) more than the requested particular amount of bandwidth; and performing an undergrant if the particular amount of bandwidth is greater than the maximum bandwidth grant size, wherein the undergrant comprises granting to the cable modem (20a-20b) less than the requested particular amount of bandwidth.
A method for performing active scanning in a wireless local area network (WLAN), the method comprising: receiving, by a first station, STA, a second probe request frame from a second STA; determining, by the first STA, whether transmitting a first probe request frame for an active scanning based on the second probe request frame; and transmitting, by the first STA, the first probe request frame to an access point, AP, in a reception channel when a channel state is busy until a probe timer reaches a minimum channel time and when a second probe response frame is not received until the probe timer reaches a maximum channel time, wherein the first probe request frame is transmitted when the probe timer reaches the maximum channel time, and wherein the second probe response frame includes a response with respect to the second probe request frame. receiving, by a first station, STA, a second probe request frame from a second STA; determining, by the first STA, whether transmitting a first probe request frame for an active scanning based on the second probe request frame; and transmitting, by the first STA, the first probe request frame to an access point, AP, in a reception channel when a channel state is busy until a probe timer reaches a minimum channel time and when a second probe response frame is not received until the probe timer reaches a maximum channel time, wherein the first probe request frame is transmitted when the probe timer reaches the maximum channel time, and wherein the second probe response frame includes a response with respect to the second probe request frame.