mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a user equipment, comprising: receiving, from a master node, a configuration to enter an inactive state; transitioning, when using a multi-connectivity mode for communication with the master node and a secondary node, from an active state to the inactive state, wherein the inactive state is different from the active state of the multi-connectivity mode, an idle state of the multi-connectivity mode, and a sleep state of the multi-connectivity mode; storing, when operating in the inactive state of the multi-connectivity mode, context information related to a bearer configuration at the secondary node; selecting at least one target node for a radio resource control connection, wherein the user equipment is in the inactive state when the at least one target node is selected; and transmitting information to the at least one target node or the master node to cause the context information to be provided to the at least one target node. receiving, from a master node, a configuration to enter an inactive state; transitioning, when using a multi-connectivity mode for communication with the master node and a secondary node, from an active state to the inactive state, wherein the inactive state is different from the active state of the multi-connectivity mode, an idle state of the multi-connectivity mode, and a sleep state of the multi-connectivity mode; storing, when operating in the inactive state of the multi-connectivity mode, context information related to a bearer configuration at the secondary node; selecting at least one target node for a radio resource control connection, wherein the user equipment is in the inactive state when the at least one target node is selected; and transmitting information to the at least one target node or the master node to cause the context information to be provided to the at least one target node.
A sorting machine for sorting flat articles (100, 101) having non-uniform physical characteristics, said sorting machine having at least one sorting outlet equipped with a stacker suitable for stacking said flat articles (100, 101) on edge in a stacking zone, said stacker being controlled by a monitoring and control unit in compliance with at least one unstacking program that sets predetermined operating parameters for said stacker such as, in particular, the pitch between said flat articles (100, 101), and the speed at which said flat articles (100, 101) are conveyed, said sorting machine being characterized in that it has a plurality of programs, each of which is assigned to a predefined type of flat article (100, 101) having predetermined physical characteristics, and in that it has determination means for determining the predetermined physical characteristics of each incoming flat article arriving in said stacker, said monitoring and control unit being arranged to act after said determination to assign a predefined type of flat article to said flat article arriving in said stacker and to activate said corresponding unstacking program so as to apply predetermined operating parameters while said incoming flat article is being stacked.
A cell dwelling method, performed by a terminal comprising: searching (S101, S201) for frequency points of pre-stored cells, and determining first-type cells from the pre-stored cells, wherein the pre-stored cells and the first-type cells are preset anchor cells configured to access a first network, and the first-type cells are the preset anchor cells determined by performing a frequency-scanning process for the pre-stored cells; performing another frequency-scanning process, obtaining frequency-scanning cells, and adding the frequency-scanning cells to a list of candidate cells, and sorting the frequency-scanning cells in the list of the candidate cells based on a preset sorting rule; wherein the frequency-scanning cells comprises the first-type cells; and increasing (S103, 207) priorities of the first-type cells in the list of the candidate cells, selecting a target cell of the first-type cells from the list of the candidate cells based on the priorities, and dwelling on the target cell. searching (S101, S201) for frequency points of pre-stored cells, and determining first-type cells from the pre-stored cells, wherein the pre-stored cells and the first-type cells are preset anchor cells configured to access a first network, and the first-type cells are the preset anchor cells determined by performing a frequency-scanning process for the pre-stored cells; performing another frequency-scanning process, obtaining frequency-scanning cells, and adding the frequency-scanning cells to a list of candidate cells, and sorting the frequency-scanning cells in the list of the candidate cells based on a preset sorting rule; wherein the frequency-scanning cells comprises the first-type cells; and increasing (S103, 207) priorities of the first-type cells in the list of the candidate cells, selecting a target cell of the first-type cells from the list of the candidate cells based on the priorities, and dwelling on the target cell.
Method of executing a computer program application, in which the computer program application is divided into a plurality of computational tasks; and at least one of the computational tasks of the computer program application is distributed by an executing node to at least one assisting node which is connected to the executing node via a network; characterized by providing a predefinable task evaluation function as a programmable interface; a) broadcasting the task evaluation function for each task from the executing node to a plurality of nodes connected to the executing node via the network, wherein said task evaluation function requests node properties of each of the nodes of the plurality of nodes; b) each of the nodes of the plurality of nodes provides its node properties to the executing node in response to interpreting the code of the task evaluation function; the executing node evaluates the node properties of the plurality of nodes, wherein capabilities of the plurality of nodes are judged from a score returned from the evaluation of node properties; and the executing node distributes the at least one of the computational tasks of the computer program application to at least one of the assisting nodes based on the judgement. the computer program application is divided into a plurality of computational tasks; and at least one of the computational tasks of the computer program application is distributed by an executing node to at least one assisting node which is connected to the executing node via a network; characterized by providing a predefinable task evaluation function as a programmable interface; a) broadcasting the task evaluation function for each task from the executing node to a plurality of nodes connected to the executing node via the network, wherein said task evaluation function requests node properties of each of the nodes of the plurality of nodes; b) each of the nodes of the plurality of nodes provides its node properties to the executing node in response to interpreting the code of a) broadcasting the task evaluation function for each task from the executing node to a plurality of nodes connected to the executing node via the network, wherein said task evaluation function requests node properties of each of the nodes of the plurality of nodes; b) each of the nodes of the plurality of nodes provides its node properties to the executing node in response to interpreting the code of
A polyurethane comprising the reaction product of reactants comprising: a 100% solids isocyanate-reactive component having hydroxyl-functional groups, said isocyanate-reactive component comprising: 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and a 100% solids aromatic isocyanate component having isocyanate-functional groups reactive with said hydroxyl-functional groups, wherein the molar ratio of said isocyanate-functional groups in said aromatic isocyanate component to said hydroxyl-functional groups in said isocyanate-reactive component ranges from 0.95:1 to 1.05:1. a 100% solids isocyanate-reactive component having hydroxyl-functional groups, said isocyanate-reactive component comprising: 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and 30 to 95% by weight of a hydroxyl-functional polyether having a weight average molecular weight ranging from 180 to 6,500 g/mol, and 5 to 70% by weight of a hydroxyl-functional acrylic, wherein said % by weight is based on the total weight of said hydroxyl-functional polyether and said hydroxyl-functional acrylic; and a 100% solids aromatic isocyanate component having isocyanate-functional groups reactive with said hydroxyl-functional groups, wherein the molar ratio of said isocyanate-functional groups in said aromatic isocyanate component to said hydroxyl-functional groups in said isocyanate-reactive component ranges from 0.95:1 to 1.05:1.
Heater appliance, in particular gas and/or oil burner device for mixed combustion, having at least one storage unit, in which at least one control characteristic map is stored, and having at least one sensor unit for detecting at least one air/fuel ratio parameter and having at least one open-loop and/or closed-loop control unit, which is designed to set an air/fuel ratio to a desired air/fuel ratio at least as a function of the air/fuel ratio parameter, and wherein, in at least one operating state, the open-loop and/or closed-loop control unit is designed to dynamically adapt the at least one control characteristic map which is provided to control at least the air/fuel ratio parameter to a desired air/fuel ratio parameter, characterized in that in a normal operating state, the at least one control characteristic map corresponds to an air/fuel ratio parameter/fuel metering signal characteristic map, wherein the normal operating state is an operating state in which the air/fuel ratio is controlled to the desired air/fuel ratio, and wherein the open-loop and/or closed-loop control unit is provided to vary a combustion air metering signal by using the control characteristic map and in this way to control the air/fuel ratio parameter to a desired air/fuel ratio parameter.
A cylinder mold of a cylinder mold paper machine for manufacturing security paper (42A, 42B) having a partially embedded window security thread, the cylinder mold, at paper manufacture, drawing a paper pulp in the form of a fiber-water suspension from a vat, and the cylinder mold including a production mold shell having a circumferential direction and, perpendicular thereto, a transverse direction that is furnished along the circumferential direction with a plurality of raised thread-window elements on which the window security thread lies at paper manufacture to suppress the accumulation of fiber-water suspension locally to produce thread windows, the thread-window elements being arranged having, along the circumference, a periodic offset in the transverse direction, characterized in that the cylinder mold circumference Ru is an integer multiple of the offset period P.
A system for facilitating fluid connection between a blood pump and a circulatory system of a patient, comprising: a cannula having proximal and distal ends (56, 58), the distal end of the cannula adapted to be in fluid communication with the circulatory system and the proximal end of the cannula configured to couple to an inlet of the blood pump; a tunneling device configured to be inserted into a body of a patient to direct the proximal end of the cannula adjacent to the inlet for connection thereto, the tunneling device having a first connecting structure; characterised by the system further comprising a plug having a first plug part and a second plug part, the first plug part having a second connecting structure and the second plug part configured to be inserted in the proximal end of the cannula, wherein the first and second connecting structures are selectively engageable to allow in situ connection between the cannula and tunneling device, and wherein the first and second plug parts (230, 232) are selectively disengageable to allow in situ disconnection between the cannula and the tunneling device when the proximal end of the cannula is adjacent to the inlet. a cannula having proximal and distal ends (56, 58), the distal end of the cannula adapted to be in fluid communication with the circulatory system and the proximal end of the cannula configured to couple to an inlet of the blood pump; a tunneling device configured to be inserted into a body of a patient to direct the proximal end of the cannula adjacent to the inlet for connection thereto, the tunneling device having a first connecting structure; characterised by the system further comprising a plug having a first plug part and a second plug part, the first plug part having a second connecting structure and the second plug part configured to be inserted in the proximal end of the cannula, wherein the first and second connecting structures are selectively engageable to allow in situ connection between the cannula and tunneling device, and wherein the first and second plug parts (230, 232) are selectively disengageable to allow in situ disconnection between the cannula and the tunneling device when the proximal end of the cannula is adjacent to the inlet.
A fuel tank for a saddled vehicle, the fuel tank including an upper half body and a lower half body, the upper half body including a tubular member arranged upright from a peripheral edge of a filler opening, the lower half body including an opening into which a fuel pump is inserted, the fuel tank being formed of an upper half body flange and a lower half body flange joined together, the upper half body flange being disposed on a lower end portion of the upper half body, the lower half body flange being disposed on an upper end portion of the lower half body, wherein the upper half body flange is disposed over a whole circumference of the lower end portion along a single plane, the lower half body flange is disposed over a whole circumference of the upper end portion along the plane, the upper half body and the lower half body are made of titanium material, the upper half body flange and the lower half body flange have linear outer edges as straight line portions (T1 and T2) when viewed from above in a direction perpendicular to the plane, the upper half body has a side surface, the lower half body has a side surface, characterised in that the side surface and/or the side surface include at least one recess (51, 56, 36, and 37) and/or at least one convex portion (60, 61, and 62), and the recess (51, 56, 36, and 37) and/or the convex portion (60, 61, and 62) are disposed within a range of lengths of the straight line portions (T1 and T2) when viewed from above in the direction perpendicular to the plane.
A Voltage Sourced Converter, VSC, for a High Voltage Direct Current, HVDC, power converter, the VSC being a Multilevel Modular Converter, MMC, the VSC comprising: a bridge circuit (18, 19, 20) for each of one or more phases of an AC network, the bridge circuit comprising two arms (18a, 18b, 19a, 19b, 20a, 20b), each arm being able to connect the AC network to a pole of a DC terminal, wherein each arm of the bridge circuit has an inductance, a branch equivalent impedance and one or more semiconductor modules capable of being switched between an on-condition, in which a capacitor of the semiconductor module is in-line in the arm of the bridge circuit, and an off-condition, in which the capacitor is out of line; a DC current fault detection arrangement configured to detect a fault arising within the Voltage Source Converter or at one or the other of the poles of the DC terminal; a built-in fault detector configured to detect either AC faults or DC faults; a controller configured, responsive to the detection of current faults by the DC current fault detection arrangement and/or the built-in fault detector, to switch one or more of the semiconductor modules in one of the arms of the bridge circuit to the on-condition and one or more of the semiconductor modules of the other arm of the bridge circuit to the off-condition, such that all electrical energy stored in the capacitors and inductances is released in the form of an LC oscillation and the branch equivalent impedance is maximised in order to minimise AC current faults through the VSC. a bridge circuit (18, 19, 20) for each of one or more phases of an AC network, the bridge circuit comprising two arms (18a, 18b, 19a, 19b, 20a, 20b), each arm being able to connect the AC network to a pole of a DC terminal, wherein each arm of the bridge circuit has an inductance, a branch equivalent impedance and one or more semiconductor modules capable of being switched between an on-condition, in which a capacitor of the semiconductor module is in-line in the arm of the bridge circuit, and an off-condition, in which the capacitor is out of line; a DC current fault detection arrangement configured to detect a fault arising within the Voltage Source Converter or at one or the other of the poles of the DC terminal; a built-in fault detector configured to detect either AC faults or DC faults; a controller configured, responsive to the detection of current faults by the DC current fault detection arrangement and/or the built-in fault detector, to switch one or more of the semiconductor modules in one of the arms of the bridge circuit to the on-condition and one or more of the semiconductor modules of the other arm of the bridge circuit to the off-condition, such that all electrical energy stored in the capacitors and inductances is released in the form of an LC oscillation and the branch equivalent impedance is maximised in order to minimise AC current faults through the VSC.
A light emitting device comprising: one or more p-type layered assemblies alternating with one or more n-type layered assemblies in a stacked configuration; light emitting active layers positioned between the p-type and the n-type layered assemblies (71,72), the light emitting active layers forming junctions (74,75) with the p-type and n-type layered assemblies (71,72); and one or more anodic contacts in electrical communication with the one or more p-type layered assemblies and one or more cathodic contacts in electrical communication with the one or more n-type layered assemblies, wherein the anodic and cathodic contacts (76,77) have a lateral arrangement relative to the stacked p-type and n-type layered assemblies (71,72) characterised in that, the n-type layered assemblies each comprise a plurality of layers (72a,72b; 72c,72d,72e; 72f,72g) of n-doped semiconductor material and one layer (72a,72d,72g) of n-doped semiconductor material has a higher level of n-dopant in comparison to an adjacent layer (72b; 72c, 72e; 72f) of n-doped semiconductor material. one or more p-type layered assemblies alternating with one or more n-type layered assemblies in a stacked configuration; light emitting active layers positioned between the p-type and the n-type layered assemblies (71,72), the light emitting active layers forming junctions (74,75) with the p-type and n-type layered assemblies (71,72); and one or more anodic contacts in electrical communication with the one or more p-type layered assemblies and one or more cathodic contacts in electrical communication with the one or more n-type layered assemblies, wherein the anodic and cathodic contacts (76,77) have a lateral arrangement relative to the stacked p-type and n-type layered assemblies (71,72) characterised in that, the n-type layered assemblies each comprise a plurality of layers (72a,72b; 72c,72d,72e; 72f,72g) of n-doped semiconductor material and one layer (72a,72d,72g) of n-doped semiconductor material has a higher level of n-dopant in comparison to an adjacent layer (72b; 72c, 72e; 72f) of n-doped semiconductor material.
A method for detecting the hydrocarbon content in a gas stream, wherein measuring gas is fed to a measuring device via a measuring gas connector of a sensor unit and is divided into a first gas stream and a second gas stream by the gas stream of the measuring gas being fed, in an alternating manner by means of a valve, directly to the sensor as a measuring gas stream, or to the sensor as a reference gas stream via an oxidation catalyst, wherein the sensor unit admixes zero gas as a dry test gas to the reference gas stream via a zero gas connector and another valve between the oxidation catalyst and the sensor, wherein the zero gas contains no hydrocarbons and no humidity, and a reference gas is obtained with it whose humidity content corresponds to the measuring gas, and an evaluation unit determines the hydrocarbon content in the gas stream of the measuring gas through a signal difference between the measuring gas and the reference gas and displays it on the display of the evaluation unit.
A composition comprising a physiologically acceptable carrier and a compound of Formula: wherein: W is selected from F, Cl, Br or I; X - is a pharmaceutically acceptable anion, and including any acceptable salts or solvates thereof. W is selected from F, Cl, Br or I; X - is a pharmaceutically acceptable anion, and including any acceptable salts or solvates thereof.
A tank support assembly for a vehicle comprising: - a vehicle structure; and - a storage tank assembly held in place relative to the vehicle structure via a magnetic support system, wherein the magnetic support system includes tank magnets affixed to the storage tank assembly and structure magnets affixed to the vehicle structure, wherein the tank magnets interact with the structure magnets to passively provide repulsive magnetic forces that constrain movement of the storage tank assembly relative to the vehicle structure without the tank magnets mechanically engaging the structure magnets, wherein the tank magnets and the structure magnets include spring magnets in matched pairs that repel when spaced apart less than an equilibrium distance and attract when spaced apart farther than the equilibrium distance, wherein one magnet in each of the matched pairs represents one of the tank magnets and the other magnet in each of the matched pairs represents one of the structure magnets. - a vehicle structure; and - a storage tank assembly held in place relative to the vehicle structure via a magnetic support system, wherein the magnetic support system includes tank magnets affixed to the storage tank assembly and structure magnets affixed to the vehicle structure, wherein the tank magnets interact with the structure magnets to passively provide repulsive magnetic forces that constrain movement of the storage tank assembly relative to the vehicle structure without the tank magnets mechanically engaging the structure magnets,
A cell or a population thereof, wherein the cell is a human induced pluripotent stem cell (hiPSC) or a derivative cell obtained from differentiating the hiPSC; wherein the cell comprises a CD38 knockout; wherein the cell comprises a high affinity non-cleavable CD16 (hnCD16); wherein the derivative cell is an immune effector cell or a progenitor thereof; and wherein the immune effector cell is a T cell or an NK cell.