mhurhangee/ep-ind-claims huggingface dataset:
A video processing method, comprising: obtaining an updated historical motion information candidate list, wherein: the updated historical motion information candidate list is updated based on motion information of at least one of second image blocks in a second region of a current frame, wherein the second image blocks in the second region are image blocks encoded or decoded earlier than image blocks in a first region of the current frame; encoding or decoding each first image block of the plurality of first image blocks according to the updated historical motion information candidate list; wherein encoding or decoding each first image block of the plurality of first image blocks according to the updated historical motion information candidate list includes: using the updated historical motion information candidate list to generate a motion information list for each first image block of the plurality of first image blocks; and selecting the motion information for each first image block of the plurality of first image blocks by using the generated motion information list for each first image block of the plurality of first image blocks; and characterized in that the obtained updated historical motion information candidate list is not updated during said process of encoding or decoding all the first image blocks in the first region. obtaining an updated historical motion information candidate list, wherein: the updated historical motion information candidate list is updated based on motion information of at least one of second image blocks in a second region of a current frame, wherein the second image blocks in the second region are image blocks encoded or decoded earlier than image blocks in a first region of the current frame; encoding or decoding each first image block of the plurality of first image blocks according to the updated historical motion information candidate list; wherein encoding or decoding each first image block of the plurality of first image blocks according to the updated historical motion information candidate list includes: using the updated historical motion information candidate list to generate a motion information list for each first image block of the plurality of first image blocks; and selecting the motion information for each first image block of the plurality of first image blocks by using the generated motion information list for each first image block of the plurality of first image blocks; and using the updated historical motion information candidate list to generate a motion information list for each first image block of the plurality of first image blocks; and selecting the motion information for each first image block of the plurality of first image blocks by using the generated motion information list for each first image block of the plurality of first image blocks; and characterized in that the obtained updated historical motion information candidate list is not updated during said process of encoding or decoding all the first image blocks in the first region.
Animal feed supplement with antimicrobial and performance-enhancing action, which contains a lignocellulose-containing, iron ion-binding material from wood, wood fibres or bark and bark fibres from pine species in combination with a plant-based antimicrobial agent which is present as an extract or material from plants of the genus magnolia, characterized in that the proportion of lignocellulose-containing iron ion-binding material is at least 10% by weight in relation to 100% by weight animal feed supplement.
A multi-topology and multi-service system for routing a stream between several nodes, Ni, comprising a network, and comprising several xSVi service access and relay points, one or more xTGi transfer gateways, suitable for enabling adaptation of the streams to be transferred to the capacities of a subnetwork, one or more LOCi routing modules, which, on routing information received from another LOCi, is adapted to determine the real itineraries used to propagate the stream across the network, for keeping up to date a database of distinct transmittal information for each service, and for containing a location directory in which a user has previously had himself registered, the directory being distributed in each standalone unit of the network, each of said LOCis being adapted to be connected, for a given service, across a group of service nodes, SNGi, to the other LOCi routing modules, a group of service nodes, SNGi, being adapted to broadcast a piece of information received by a LOCi routing module to all of the LOCis connected on this group of services nodes, the stream being transmitted by a source and being intended for one or more destinations taking account of the mobility constraints of the users and of the network nodes, the location of the users present in the network, the accessibility and topology information relating to all of the links existing between the xSVi service modules of the various services, • the routing system further comprising an LOCi module associated with each xSVi of said routing system, said xSVi module interrogating the LOCi module associated with the xSVi in order to route a stream to one or more nodes Ni of said network, • said LOCi being adapted to supply upon each of the requests of said xSVi for each of the stream destinations, the next xSVi relay hop of the information and the pair of xTG, the entrance gateway and exit gateway to be used to reach this next hop. • the routing system further comprising an LOCi module associated with each xSVi of said routing system, said xSVi module interrogating the LOCi module associated with the xSVi in order to route a stream to one or more nodes Ni of said network, • said LOCi being adapted to supply upon each of the requests of said xSVi for each of the stream destinations, the next xSVi relay hop of the information and the pair of xTG, the entrance gateway and exit gateway to be used to reach this next hop.
A torque obtaining method, comprising: obtaining a rotation speed of a motor; obtaining a current of the motor; obtaining a flux linkage of the motor; determining an electromagnetic torque of the motor based on the current and the flux linkage; and inputting the rotation speed and the electromagnetic torque into a preset status observer, and obtaining an observed value of an actual output torque of the motor, wherein the observed value is output by the status observer characterized in that the preset status observer outputs the observed value of the actual output torque of the motor based on the following calculation formula: w ^ ̇ m = 1 J ∗ T elc - T ^ load - B ∗ w ^ m + J ∗ L 1 ∗ w m - w ^ m, T ^ ̇ load = L 2 ∗ w m - w ^ m, wherein, w m is the rotation speed, T elc is the electromagnetic torque, ŵ m is an observed value of the rotation speed, B is a damping coefficient of the motor, J is a moment of inertia of the motor, w ^ ̇ m is a derivative of the observed value of the rotation speed, T̂ load is the observed value of the actual output torque, T ^ ̇ load is a derivative of the observed value of the actual output torque, L1 is a preset first control parameter, and L2 is a preset second control parameter; and the observed value of the rotation speed is determined by integrating the derivative of the observed value of the rotation speed. obtaining a rotation speed of a motor; obtaining a current of the motor; obtaining a flux linkage of the motor; determining an electromagnetic torque of the motor based on the current and the flux linkage; and inputting the rotation speed and the electromagnetic torque into a preset status observer, and obtaining an observed value of an actual output torque of the motor, wherein the observed value is output by the status observer characterized in that the preset status observer outputs the observed value of the actual output torque of the motor based on the following calculation formula: w ^ ̇ m = 1 J ∗ T elc - T ^ load - B ∗ w ^ m + J ∗ L 1 ∗ w m - w ^ m, T ^ ̇ load = L 2 ∗ w m - w ^ m, wherein, w m is the rotation speed, T elc is the electromagnetic torque, ŵ m is an observed value of the rotation speed, B is a damping coefficient of the motor, J is a moment of inertia of the motor, w ^ ̇ m is a derivative of the observed value of the rotation speed, T̂ load is the observed value of the actual output torque, T ^ ̇ load is a derivative of the observed value of the actual output torque, L1 is a preset first control parameter, and L2 is a preset second control parameter; and the observed value of the rotation speed is determined by integrating the derivative of the observed value of the rotation speed.
A lithium ion secondary battery comprising: first and second electrode laminates (1a, 1b), each of which has a structure in which a positive electrode, a separator, and a negative electrode, each of which comprises at least one line segment on a circumferential portion thereof, are alternately laminated; and a positive electrode tab and a negative electrode tab, which have shapes protruding from the line segments of the positive electrode and the negative electrode, respectively, wherein the positive electrode, the separator, and the negative electrode are laminated so that the line segments face each other, the positive electrode tabs are laminated to face each other and thereby to provide a positive electrode tab bundle, the negative electrode tabs are laminated to face each other and thereby to provide a negative electrode tab bundle, the second electrode laminate is connected to a side portion of the first electrode laminate, and the first electrode laminate is connected in series to the second electrode laminate, characterized in that the positive electrode tab bundle of the first electrode laminate is electrically connected to the negative electrode tab bundle of the second electrode laminate, and an insulator is disposed between the negative electrode tab bundle of the first electrode laminate and the positive electrode tab bundle of the second electrode laminate to prevent electrical connection. first and second electrode laminates (1a, 1b), each of which has a structure in which a positive electrode, a separator, and a negative electrode, each of which comprises at least one line segment on a circumferential portion thereof, are alternately laminated; and a positive electrode tab and a negative electrode tab, which have shapes protruding from the line segments of the positive electrode and the negative electrode, respectively, wherein the positive electrode, the separator, and the negative electrode are laminated so that the line segments face each other, the positive electrode tabs are laminated to face each other and thereby to provide a positive electrode tab bundle, the negative electrode tabs are laminated to face each other and thereby to provide a negative electrode tab bundle, the second electrode laminate is connected to a side portion of the first electrode laminate, and the first electrode laminate is connected in series to the second electrode laminate, characterized in that the positive electrode tab bundle of the first electrode laminate is electrically connected to the negative electrode tab bundle of the second electrode laminate, and an insulator is disposed between the negative electrode tab bundle of the first electrode laminate and the positive electrode tab bundle of the second electrode laminate to prevent electrical connection.
A network device comprising a microphone and configured for: upon initiating a calibration process, detecting, by a motion sensor of the network device, movement of the network device; in response to detecting the movement, sending a message to a playback device (200, 604, 606) that the network device has begun movement from a first physical location to a second physical location to cause, in response to the message, the playback device (200, 604, 606) to play a first audio signal; detecting, by the microphone, a second audio signal while the playback device (200, 604, 606) is playing back the first audio signal and the network device is moving from the first physical location to the second physical location; and based the detected second audio signal, identifying an audio processing algorithm; and transmitting, to the playback device (200, 604, 606), data indicating the identified audio processing algorithm. upon initiating a calibration process, detecting, by a motion sensor of the network device, movement of the network device; in response to detecting the movement, sending a message to a playback device (200, 604, 606) that the network device has begun movement from a first physical location to a second physical location to cause, in response to the message, the playback device (200, 604, 606) to play a first audio signal; detecting, by the microphone, a second audio signal while the playback device (200, 604, 606) is playing back the first audio signal and the network device is moving from the first physical location to the second physical location; and based the detected second audio signal, identifying an audio processing algorithm; and transmitting, to the playback device (200, 604, 606), data indicating the identified audio processing algorithm.
A printhead apparatus with built-in test comprising: a plurality of printheads, each printhead having a unidirectional data channel to provide data to the printhead; a data register at cach printhead to detect proper reception of a test flag received by the printhead through the UDC; and a status channel to report printhead status information comprising whether or not proper reception of the test flag was detected by the data register. a plurality of printheads, each printhead having a unidirectional data channel to provide data to the printhead; a data register at cach printhead to detect proper reception of a test flag received by the printhead through the UDC; and a status channel to report printhead status information comprising whether or not proper reception of the test flag was detected by the data register.
A method for a machine implementing a gateway datapath, the method comprising: receiving a first packet from a network; executing, at a processor of the machine, a run-to-completion thread to perform a first plurality of function calls based on content of the first packet, wherein at least one of the function calls configures the processor to operate as a logical router for performing routing operations based on header of the received first packet; providing configuration data to the run-to-completion thread, the configuration data comprising a routing table when the processor is configured to operate as the logical router; receiving a second packet from the network; and executing, at the processor, the run-to-completion thread to perform a second plurality of function calls based on content of the second packet, wherein the second plurality of function calls are different from the first plurality of function calls. receiving a first packet from a network; executing, at a processor of the machine, a run-to-completion thread to perform a first plurality of function calls based on content of the first packet, wherein at least one of the function calls configures the processor to operate as a logical router for performing routing operations based on header of the received first packet; providing configuration data to the run-to-completion thread, the configuration data comprising a routing table when the processor is configured to operate as the logical router; receiving a second packet from the network; and executing, at the processor, the run-to-completion thread to perform a second plurality of function calls based on content of the second packet, wherein the second plurality of function calls are different from the first plurality of function calls.
Use of a material for producing water gas, wherein the material contains polyhydric alcohol, hydroxycarboxylic acid, and water, wherein the content of hydroxycarboxylic acid is 0.1 parts by mass to 50 parts by mass relative to 100 parts by mass of polyhydric alcohol, and the content of water is 0.3 to 10 in molar ratio relative to carbon atoms contained in the polyhydric alcohol.
Device comprising: • an equipment item (101; 201; 211; 301; 401) with a heat source having a maximum thermal operating condition which is a maximum operating temperature or a maximum thermal power transmitted through the equipment item, • a cold part (102; 202; 212; 302; 402) that is cold relative to the equipment item and formed of a combustible material or of a member sensitive to increases in temperature, and • a member (103; 203, 204; 213, 214; 303; 403, 404, 405) able to transmit the heat of the equipment item to the cold part, characterized in that the member is able to bring about a limitation on the heat transmitted for thermal conditions above a determined threshold lower than the said maximum condition so as to prevent overheating of the cold part leading to damage thereto or inflammation thereof. • an equipment item (101; 201; 211; 301; 401) with a heat source having a maximum thermal operating condition which is a maximum operating temperature or a maximum thermal power transmitted through the equipment item, • a cold part (102; 202; 212; 302; 402) that is cold relative to the equipment item and formed of a combustible material or of a member sensitive to increases in temperature, and • a member (103; 203, 204; 213, 214; 303; 403, 404, 405) able to transmit the heat of the equipment item to the cold part,
A method for forming a flat composite charge into a composite blade stiffener, the method comprising: assembling a flat composite charge to a thickness in a predetermined orientation; forming a cut line on the flat composite charge having opposing 45 degree beveled edges (120, 122) angled outward from the cut line; positioning the flat composite charge centered about a tooling plunger such that the tooling plunger is aligned with the cut line; applying a reinforcement ply over the flat composite charge; and activating the tooling plunger to move downward and fold the flat composite charge at the cut line into a cavity of a forming mandrel, wherein at completion of movement of the tooling plunger and resulting folding of the flat composite charge, the opposing 45 degree beveled edges form a flat surface perpendicular to the cut line and form a first flange and a second flange connected to the flat surface. assembling a flat composite charge to a thickness in a predetermined orientation; forming a cut line on the flat composite charge having opposing 45 degree beveled edges (120, 122) angled outward from the cut line; positioning the flat composite charge centered about a tooling plunger such that the tooling plunger is aligned with the cut line; applying a reinforcement ply over the flat composite charge; and activating the tooling plunger to move downward and fold the flat composite charge at the cut line into a cavity of a forming mandrel, wherein at completion of movement of the tooling plunger and resulting folding of the flat composite charge, the opposing 45 degree beveled edges form a flat surface perpendicular to the cut line and form a first flange and a second flange connected to the flat surface.
A heat exchanger, comprising: a plate surface; and a non-isotropic fin attached to the plate surface, including a first fin layer having a first thickness or diameter and a first length from the plate surface and forming a first channel extending along a mean flow direction through the heat exchanger, characterised by a plurality of channels extending along the mean flow direction and located between the first channel and the plate surface, one of the plurality of channels being formed by a second fin layer having a second thickness or diameter and second length from the plate surface and forming a second channel extending along the mean flow direction, wherein the first thickness or diameter is greater than the second thickness or diameter and the first length is greater than the second length. a plate surface; and a non-isotropic fin attached to the plate surface, including a first fin layer having a first thickness or diameter and a first length from the plate surface and forming a first channel extending along a mean flow direction through the heat exchanger, characterised by a plurality of channels extending along the mean flow direction and located between the first channel and the plate surface, one of the plurality of channels being formed by a second fin layer having a second thickness or diameter and second length from the plate surface and forming a second channel extending along the mean flow direction, wherein the first thickness or diameter is greater than the second thickness or diameter and the first length is greater than the second length.
Method for controlling the position of a lower and/or upper material web (8, 14) on a packaging machine, wherein the lower material web is unwound from a supply roll and intermittently or continuously transported along the packaging machine by two chain strands, each having a multiplicity of grippers which grip in a clamping manner the lower material web in the infeed region of the packaging machine, and in the process pack cavities are optionally formed in the lower material web in a forming station, and the lower material web, preferably the pack cavities, are then populated with a packaged item, wherein, subsequently in a sealing station, an upper material web is connected to the lower material web, wherein the lower and the upper material web (8, 14) are in each case unwound from a supply roll (21, 22), characterized in that the transverse position of a reference point on the lower and/or the upper material web (8, 14) relative to a stationary component of the packaging machine is detected by a sensor at the infeed of the chain strand where the grippers of the chain clamp the periphery of the material web and, based on this detection, the position of the lower and/or the upper material web (8, 14) transverse to its transporting direction is modified, if required.