mhurhangee/ep-ind-claims huggingface dataset:
A method of routing and spectrum assignment for a traffic request of x sub-carriers of a super-channel in an optical communications network having nodes for bandwidth variable wavelength switching, the method having the steps of: checking whether there is an existing super-channel having the same source and destination, and having sufficient potential sub-carriers for the traffic request which are not currently active, and for which link resources are available, if so, selecting and assigning x of the potential sub-carriers for the traffic request, otherwise, if sufficient such potential sub-carriers are not found, then identifying possible paths for a new super-channel having at least x sub-carriers for the traffic request, and selecting a path for the new super-channel from the possible paths and assigning x sub-carriers of the selected path for the traffic request, the step of identifying possible paths for a new super-channel comprising identifying possible non overlapping paths having available link resources for x sub-carriers and not overlapping in spectrum with potential sub-carriers for other super-channels on any part of the possible paths, and if no possible non overlapping paths are found, of identifying overlap paths using spectrum overlapping with that of potential sub-carriers for other super-channels, and selecting a path from the identified overlap paths. checking whether there is an existing super-channel having the same source and destination, and having sufficient potential sub-carriers for the traffic request which are not currently active, and for which link resources are available, if so, selecting and assigning x of the potential sub-carriers for the traffic request, otherwise, if sufficient such potential sub-carriers are not found, then identifying possible paths for a new super-channel having at least x sub-carriers for the traffic request, and selecting a path for the new super-channel from the possible paths and assigning x sub-carriers of the selected path for the traffic request, the step of identifying possible paths for a new super-channel comprising identifying possible non overlapping paths having available link resources for x sub-carriers and not overlapping in spectrum with potential sub-carriers for other super-channels on any part of the possible paths, and if no possible non overlapping paths are found, of identifying overlap paths using spectrum overlapping with that of potential sub-carriers for other super-channels, and selecting a path from the identified overlap paths.
A control system for accumulating bales (B1, B2) processed by a baling chamber on an accumulator, the baling chamber and the accumulator configured to move in a direction of travel across a field, the accumulator having a base frame and a carriage laterally movable relative to the base frame, the lateral direction being transverse to the direction of travel, the carriage having a platform and first and second upstanding side walls (70, 72) defining a crop package receiving area therebetween, the control system comprising: at least one actuator (92, 1092) mounted to the base frame and configured to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls (70, 72), such that the platform and the first and second upstanding side walls (70, 72) are moved laterally relative to the base frame, characterized in that the at least one actuator (92, 1092) is configured to move the carriage relative to the base frame, wherein the crop package receiving area has a fixed lateral width during all movement of the carriage relative to the base frame; at least one sensor (104, 232, 1104) configured to detect a position of one or more of the carriage and the at least one actuator (92, 1092) relative to the base frame; and a controller, having a processor and memory architecture, configured to receive position signals from the at least one sensor (104, 232, 1104) and control the at least one actuator (92, 1092) based on the received position signals to move at least the carriage in the lateral direction relative to the base frame to sequentially accumulate multiple bales (B1, B2) on the carriage. at least one actuator (92, 1092) mounted to the base frame and configured to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls (70, 72), such that the platform and the first and second upstanding side walls (70, 72) are moved laterally relative to the base frame, characterized in that the at least one actuator (92, 1092) is configured to move the carriage relative to the base frame, wherein the crop package receiving area has a fixed lateral width during all movement of the carriage relative to the base frame; at least one sensor (104, 232, 1104) configured to detect a position of one or more of the carriage and the at least one actuator (92, 1092) relative to the base frame; and a controller, having a processor and memory architecture, configured to receive position signals from the at least one sensor (104, 232, 1104) and control the at least one actuator (92, 1092) based on the received position signals to move at least the carriage in the lateral direction relative to the base frame to sequentially accumulate multiple bales (B1, B2) on the carriage.
A method for controlling energy resources available to different micro-grids (104, 106, 108, 202) of an area, each micro-grid including a respective tracking network that collects mobility data using sensors that are connected throughout the respective micro-grid, comprising: collecting, by a mobility pattern estimator that is in communication with a tracking network of a micro-grid, mobility data of persons in the micro-grid of the area; predicting, by the mobility pattern estimator, a mobility pattern of a population of people in the micro-grid using the collected mobility data;; estimating, by an energy management system, an energy requirement for the micro-grid using the predicted mobility pattern; selecting, by an analytical system, an energy resource suitable for satisfying the energy requirement of the micro-grid during a time corresponding to the predicted mobility pattern; and powering, by the energy management system, using the selected energy resource the micro-grid during the time corresponding to the predicted mobility pattern. collecting, by a mobility pattern estimator that is in communication with a tracking network of a micro-grid, mobility data of persons in the micro-grid of the area; predicting, by the mobility pattern estimator, a mobility pattern of a population of people in the micro-grid using the collected mobility data;; estimating, by an energy management system, an energy requirement for the micro-grid using the predicted mobility pattern; selecting, by an analytical system, an energy resource suitable for satisfying the energy requirement of the micro-grid during a time corresponding to the predicted mobility pattern; and powering, by the energy management system, using the selected energy resource the micro-grid during the time corresponding to the predicted mobility pattern.
Valve fixing plate, having a gas valve, a gas conduit, a switch associated with the gas valve and a valve pin associated with the gas valve, wherein the valve fixing plate is used to fix the gas valve to a gas conduit connected to a burner, wherein the valve fixing plate has an upper part and a side part, wherein the side part is formed in one piece with the upper part and the valve pin passes through the side part and wherein the valve fixing plate comprises a support extension, characterised in that the support extension is moulded on the side part, that the valve fixing plate is placed onto the gas conduit from above, and that the support extension sufficiently supports the switch at least from above and from behind, wherein the support extension has an upper support which extends inwards and is substantially parallel to the upper part, and a rear stop moulded on the continuation of the upper part and sticking out perpendicular to the base in respect of the upper part, wherein the support extension has an inclined surface moulded in the initial region of the upper support and sticking out at a particular acute angle to the base in respect of the upper part and wherein the initial region of the upper support is the inclined surface, and the continuation of the upper support extends substantially parallel to the upper part, wherein the rear stop is located on the continuation of the upper support and extends substantially perpendicular to the upper part.
A charge carrier for the defined arrangement of processed objects, the charge carrier comprising, as components, at least a support grid having a plurality of receiving elements for receiving the objects, the receiving elements being connected to the support grid in a form-fitting manner via a plug-in connection, the receiving elements being designed as adapters for the positioned individual reception of the objects, the adapters being received in adapter receptacles of the support grid so as to be arranged in a positioned manner, characterised in that the support grid has at least one row arrangement of a plurality of adapter receptacles, the adapter receptacles having a receiving edge for supporting a support edge of the adapter, the receiving edge being formed by at least one web (32, 33) of a grid structure of the support grid, and the support edge having a positioning means for being connected to the at least one web in a form-fitting manner, in that the receiving edge is designed as a closed frame having a frame opening formed in the grid structure of the support grid, and the support edge is designed as a support frame having a frame opening, the frame openings being arranged so as to at least partially overlap each other, and in that both the receiving edge of the adapter receptacles and the support edge of the adapters are annular, the support edge having, as a positioning means, positioning grooves for producing an engagement connection with the grid structure of the support grid.
A method for producing a polythiol compound, comprising: reacting 2-mercaptoethanol with an epihalohydrin in an amount of 1.00 equivalent or more and 1.25 equivalent or less with respect to the 2-mercaptoethanol to obtain a polyol compound represented by Formula; [in Formula, X represents a halogen atom] reacting the polyol compound represented by Formula with an alkali metal sulfide in an amount of 1.04 equivalent or more and 1.25 equivalent or less with respect to the 2-mercaptoethanol to obtain a polyol compound represented by Formula; reacting the polyol compound represented by Formula with thiourea in the presence of an acid to obtain an isothiuronium salt; hydrolyzing the isothiuronium salt in the presence of a base to obtain a polythiol salt; and converting the polythiol salt into a polythiol with an acid to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula, a polythiol compound represented by Formula, and a polythiol compound represented by Formula, wherein the measured value of the thiol equivalent of the polythiol compound obtained by the method for producing a polythiol compound is 92 or more and 100 or less. reacting 2-mercaptoethanol with an epihalohydrin in an amount of 1.00 equivalent or more and 1.25 equivalent or less with respect to the 2-mercaptoethanol to obtain a polyol compound represented by Formula; [in Formula, X represents a halogen atom] reacting the polyol compound represented by Formula with an alkali metal sulfide in an amount of 1.04 equivalent or more and 1.25 equivalent or less with respect to the 2-mercaptoethanol to obtain a polyol compound represented by Formula; reacting the polyol compound represented by Formula with thiourea in the presence of an acid to obtain an isothiuronium salt; hydrolyzing the isothiuronium salt in the presence of a base to obtain a polythiol salt; and converting the polythiol salt into a polythiol with an acid to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula, a polythiol compound represented by Formula, and a polythiol compound represented by Formula, wherein the measured value of the thiol equivalent of the polythiol compound obtained by the method for producing a polythiol compound is 92 or more and 100 or less.
A method for manufacturing tower tube section, comprising: forming a first tubular section and a second tubular section; joining the first tubular section and the second tubular section; forming a first notch on the first tubular section and a second notch on the second tubular section, wherein an opening is formed by the first notch and the second notch, wherein a height of the first notch is less than a height of the first tubular section, and a height of the second notch is less than a height of the second tubular section; and forming a door frame, wherein the door frame is embedded in the opening and is welded to the first tubular section and the second tubular section, and providing a door opening to the door frame, characterised in that the forming the door frame comprises: forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness of the joint section is less than a thickness of the body of the door frame and is greater than a thickness of the first tubular section and the second tubular section. forming a first tubular section and a second tubular section; joining the first tubular section and the second tubular section; forming a first notch on the first tubular section and a second notch on the second tubular section, wherein an opening is formed by the first notch and the second notch, wherein a height of the first notch is less than a height of the first tubular section, and a height of the second notch is less than a height of the second tubular section; and forming a door frame, wherein the door frame is embedded in the opening and is welded to the first tubular section and the second tubular section, and providing a door opening to the door frame, characterised in that the forming the door frame comprises: forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness of the joint section is less than a thickness of the body of the door frame and is greater than a thickness of the first tubular section and the second tubular section. forming a first tube by rolling a steel plate; performing a re-rounding process on the first tube; and cutting the first tube along a longitudinal direction of the first tube to form at least one door frame, forming a joint section on a periphery of a body of the door frame after the door frame is formed, wherein a thickness of the joint section is less than a thickness of the body of the door frame and is greater than a thickness of the first tubular section and the second tubular section.
LDPC encoder (low-density parity-check encoder) configured to encode signals using an LDPC code, characterised in that it supports a control matrix represented by a Tanner bipartite graph composed of 128 variable nodes of the graph and 64 constraint nodes of the graph, the graph being such that: - each of the constraint nodes of the graph is connected to precisely 7 variable nodes of the graph; - each of the cycles of the graph has a length which is greater than or equal to 6; wherein the Tanner bipartite graph is a graph derived from a protograph, the protograph comprising 8 variable nodes of the protograph (410a, 411a, 412a, 413a, 414a, 415a, 416a, 417a), each variable node of the protograph being a group of 16 variable nodes of the graph and 4 constraint nodes of the protograph (420a, 421a, 422a, 423a), each constraint node of the protograph being a group of 16 constraint nodes of the graph, wherein each constraint node of the protograph is connected to 7 of the variable nodes of the protograph according to a matrix, each constraint node being represented by a row of the matrix, each variable node being represented by a column of the matrix, each cell of the matrix, defined on a row and a column, comprising the value 1 when the variable node represented by the row of the cell and the constraint node represented by the column of the cell are connected, and the value 0 otherwise, the matrix being defined by the values: 1 1 1 1 0 1 1 1 1 1 1 1 1 0 1 1 1 1 1 1 1 1 0 1 1 1 1 1 1 1 1 0 the LDPC encoder being characterised in that the minimum distance of the code is equal to 14. - each of the constraint nodes of the graph is connected to precisely 7 variable nodes of the graph; - each of the cycles of the graph has a length which is greater than or equal to 6;
Method for improved communication between a software client application - being loaded to or installed on a client computing device - and an application network backend, using a telecommunications network, wherein the client computing device receives a plurality of communication messages (400, 401) using an established or common messaging service within the telecommunications network and wherein the software client application and the client computing device are configured such that specific communication messages, being sent by the application network backend to the client computing device, are selectively provided to the software client application or selectively handled by the software client application, whereby a direct but asynchronous communication between the application network backend and the software client application on the client computing device is provided, wherein the method comprises the following steps: -- in a first step, a reachability identifier information is defined or generated, -- in a second step, subsequent to the first step, a specific communication message, transmitted by the telecommunications network according to the established or common messaging service and initiated by the application network backend, is received by the client computing device, the specific communication message comprising the reachability identifier information, -- in a third step, subsequent to the second step, the reachability identifier information of the specific communication message is detected and the specific communication message selectively provided to the software client application or selectively handled by the software client application. -- in a first step, a reachability identifier information is defined or generated, -- in a second step, subsequent to the first step, a specific communication message, transmitted by the telecommunications network according to the established or common messaging service and initiated by the application network backend, is received by the client computing device, the specific communication message comprising the reachability identifier information, -- in a third step, subsequent to the second step, the reachability identifier information of the specific communication message is detected and the specific communication message selectively provided to the software client application or selectively handled by the software client application.
A latch valve (20; 120) comprising: a magnetic chamber (22; 122) defining a flow passage (24; 124); a seal seat in the flow passage (24; 124) and a seal disposed against the seal seat such that the seal restricts flow through the flow passage (24; 124); a magnetic valve member (26; 126) disposed in the flow passage (24; 124) adjacent the seal; a permanent magnet generating a first magnetic field that magnetically latches the magnetic valve member (26; 126) to apply a load on the seal against the seal seat and apply a default magnitude of compression of the seal; and an electromagnet configured to generate a variable second magnetic field that magnetically influences the magnetic valve member (26; 126) to vary the load on the seal against the seal seat; wherein the magnetic chamber (22; 122) is free of any mechanical springs; characterised in that the seal is disposed against the seal seat such that an amount of fluid leaks past the seal through the seal seat, depending on the magnitude of the load applied to the seal by the magnetic valve member; and a controller electrically connected with the electromagnet is configured to vary the second magnetic field responsive to flow output from the flow passage (24; 124) through the seal seat to selectively vary the load on the seal and the magnitude of compression of the seal to vary the amount of fluid that leaks past the seal while the seal is disposed against the seal seat. a magnetic chamber (22; 122) defining a flow passage (24; 124); a seal seat in the flow passage (24; 124) and a seal disposed against the seal seat such that the seal restricts flow through the flow passage (24; 124); a magnetic valve member (26; 126) disposed in the flow passage (24; 124) adjacent the seal; a permanent magnet generating a first magnetic field that magnetically latches the magnetic valve member (26; 126) to apply a load on the seal against the seal seat and apply a default magnitude of compression of the seal; and an electromagnet configured to generate a variable second magnetic field that magnetically influences the magnetic valve member (26; 126) to vary the load on the seal against the seal seat; wherein the magnetic chamber (22; 122) is free of any mechanical springs; characterised in that the seal is disposed against the seal seat such that an amount of fluid leaks past the seal through the seal seat, depending on the magnitude of the load applied to the seal by the magnetic valve member; and a controller electrically connected with the electromagnet is configured to vary the second magnetic field responsive to flow output from the flow passage (24; 124) through the seal seat to selectively vary the load on the seal and the magnitude of compression of the seal to vary the amount of fluid that leaks past the seal while the seal is disposed against the seal seat.