mhurhangee/ep-ind-claims huggingface dataset:
A conveyor comprising: a conveyor frame; an endless conveyor belt (12; 36; 52; 62; 80) supported in the conveyor frame and having magnetic properties; the endless conveyor belt (12; 36; 52; 62; 80) comprising a series of rows of belt modules linked together at hinge joints by hinge rods; a plurality of electromagnets (30; 44; 60; 74; 86; 86'; 86") disposed along the conveyor frame and arranged to generate magnetic fields attracting or repelling the conveyor belt (12; 36; 52; 62; 80); characterized in that it further comprises a sensor (59, 102, 102') sensing an operating condition of the conveyor belt (12; 36; 52; 62; 80) and providing a sensor signal representing the operating condition; and a controller receiving the sensor signal from the sensor (102; 102') and controlling the magnetic fields generated by the electromagnets (30; 44; 60; 74; 86; 86'; 86"; 114) in response to the sensor signal to position the conveyor belt (12; 36; 52; 62; 80) in the conveyor frame. a conveyor frame; an endless conveyor belt (12; 36; 52; 62; 80) supported in the conveyor frame and having magnetic properties; the endless conveyor belt (12; 36; 52; 62; 80) comprising a series of rows of belt modules linked together at hinge joints by hinge rods; a plurality of electromagnets (30; 44; 60; 74; 86; 86'; 86") disposed along the conveyor frame and arranged to generate magnetic fields attracting or repelling the conveyor belt (12; 36; 52; 62; 80); characterized in that it further comprises a sensor (59, 102, 102') sensing an operating condition of the conveyor belt (12; 36; 52; 62; 80) and providing a sensor signal representing the operating condition; and a controller receiving the sensor signal from the sensor (102; 102') and controlling the magnetic fields generated by the electromagnets (30; 44; 60; 74; 86; 86'; 86"; 114) in response to the sensor signal to position the conveyor belt (12; 36; 52; 62; 80) in the conveyor frame.
A portable wireless terminal (20, 20a, 20b, 20c, 20d, 20e), comprising: a battery portion configured to accumulate electric power; a terminal wireless data communication portion configured to wirelessly communicate information; and a terminal communication setting portion configured to set predetermined setting information related to wireless communication by the terminal wireless data communication portion, characterized by a contactless power reception portion that is different from the terminal wireless data communication portion, the contactless power reception portion including a power reception antenna configured to receive electric power for recharging the battery portion in a contactless manner from an external terminal, wherein the power reception antenna is configured to transmit the predetermined setting information to the external terminal or to receive the setting information from the external terminal, and wherein the terminal communication setting portion is further configured to make communication settings of a wireless communication line used by the terminal wireless data communication portion to perform wireless communication, based on the predetermined setting information which is received by the power reception antenna of the contactless power reception portion and is input to the terminal communication setting portion. a battery portion configured to accumulate electric power; a terminal wireless data communication portion configured to wirelessly communicate information; and a terminal communication setting portion configured to set predetermined setting information related to wireless communication by the terminal wireless data communication portion, characterized by a contactless power reception portion that is different from the terminal wireless data communication portion, the contactless power reception portion including a power reception antenna configured to receive electric power for recharging the battery portion in a contactless manner from an external terminal, wherein the power reception antenna is configured to transmit the predetermined setting information to the external terminal or to receive the setting information from the external terminal, and wherein the terminal communication setting portion is further configured to make communication settings of a wireless communication line used by the terminal wireless data communication portion to perform wireless communication, based on the predetermined setting information which is received by the power reception antenna of the contactless power reception portion and is input to the terminal communication setting portion.
A receiver (14; 114) for use in a base station of a cellular random access communications system for demodulating a plurality of random access request messages of a plurality of mobile stations (16, 18), each random access request message comprising a signature pattern, said receiver (14; 114) comprising means arranged for identifying and demodulating said random access request messages, characterized by: matched filter means (13a-13n; 124), comprising a plurality of matched filters, arranged for coupling each matched filter to an antenna of a plurality of antennas (12a-12n; 122) for receiving and detecting at least one of said plurality of random access request messages; demodulation means (132a-132n), comprising a plurality of demodulators, arranged for demodulating said at least one detected random access request message; accumulator means (15a-15n; 126), comprising a bank of accumulators, with each accumulator tuned to a specific signature pattern, said accumulator means (15a-15n; 126) being arranged for detecting a signature pattern of said at least one detected random access message; and peak signal detector means arranged for detecting presence of said at least one detected random access message at a matched filter from an output of an accumulator of said accumulator means (15a-15n; 126) tuned to said signature pattern of said at least one detected random access message, and activating a corresponding demodulator of said demodulation means (132a-132n) for demodulating said at least one detected random access request message. matched filter means (13a-13n; 124), comprising a plurality of matched filters, arranged for coupling each matched filter to an antenna of a plurality of antennas (12a-12n; 122) for receiving and detecting at least one of said plurality of random access request messages; demodulation means (132a-132n), comprising a plurality of demodulators, arranged for demodulating said at least one detected random access request message; accumulator means (15a-15n; 126), comprising a bank of accumulators, with each accumulator tuned to a specific signature pattern, said accumulator means (15a-15n; 126) being arranged for detecting a signature pattern of said at least one detected random access message; and peak signal detector means arranged for detecting presence of said at least one detected random access message at a matched filter from an output of an accumulator of said accumulator means (15a-15n; 126) tuned to said signature pattern of said at least one detected random access message, and activating a corresponding demodulator of said demodulation means (132a-132n) for demodulating said at least one detected random access request message.
A method of operating a forwarding element in a forwarding plane of a network including the forwarding plane and a control plane, the method characterised by the steps of: receiving a packet through an input/output port of the forwarding element in the forwarding plane; attempting to match the packet with a flow table of the forwarding element in the forwarding plane; responsive to the packet missing a match with the flow table in the forwarding plane, attempting to match the packet with a shadow table of the forwarding element in the forwarding plane; and responsive to the packet missing a match with the flow table and matching with a shadow rule of the shadow table, installing a new flow rule in the flow table based on the shadow rule from the shadow table matching the packet, wherein installing the new flow rule comprises installing the new flow rule in the flow table based on the shadow rule from the shadow table matching the packet without transmitting the packet from the forwarding element to a control plane of the network. receiving a packet through an input/output port of the forwarding element in the forwarding plane; attempting to match the packet with a flow table of the forwarding element in the forwarding plane; responsive to the packet missing a match with the flow table in the forwarding plane, attempting to match the packet with a shadow table of the forwarding element in the forwarding plane; and responsive to the packet missing a match with the flow table and matching with a shadow rule of the shadow table, installing a new flow rule in the flow table based on the shadow rule from the shadow table matching the packet, wherein installing the new flow rule comprises installing the new flow rule in the flow table based on the shadow rule from the shadow table matching the packet without transmitting the packet from the forwarding element to a control plane of the network.
A fast-change display with planar elements (3, 13) and photographing or descriptive setting where there is a surface having suitable size to house a desired number and shape of planar elements; a display surface provided with a distributed magnetic field and made with a rubber or plastic synthetic material layer provided with a ferromagnetic material dispersion, activated as to make the above said magnetic field; each planar element (3, 13) is equipped with at least one mean of clinging applied by means of an adhesive layer, on the support face of the interested planar element, and including a dispersion or a ferromagnetic material continuity; moreover, it has a sheet constituting the photographing or descriptive setting which can be applied to the display surface and removed for future replacement; the sheets creating the descriptive or photographing setting being made of flexible material with non-activated ferromagnetic material dispersion and printing made directly on the surface in view of the flexible material; characterized in that the synthetic material layer with magnetized ferromagnetic material dispersion of the display surface consists of a thin rubber or plastic magnetized layer forming a magnetic field, close to the support surface, between 300 and 600 gauss; at 10 millimeters from the support surface the magnetic field is almost null; the rubber or plastic magnetized layer is between 0.5 and 2 millimeters thick; the sheet constituting the photographing or descriptive setting, made of flexible material with non-activated ferromagnetic material dispersion, is between 0.1 and 0.3 millimeters thick.
An access point device, comprising: a first sending unit, configured to send a first message to a station, wherein the first message carries indication information indicating that a basic service set is in a fractional frequency reuse mode; a first receiving unit, configured to receive a second message sent by the station, wherein the second message carries indication information indicating that the station supports the fractional frequency reuse mode; an execution unit, configured to communicate with the station in the fractional frequency reuse mode after determining, according to the second message received by the receiving unit, that the station supports the fractional frequency reuse mode; a scanning unit, configured to scan a channel, so as to obtain frequency reuse information of each basic service set surrounding the access point; and a determining unit, configured to determine a frequency reuse manner of the access point according to a reuse policy and the frequency reuse information that is of each basic service set surrounding the access point and that is obtained by the scanning unit, wherein the reuse policy is a frequency allocation manner used by the access point to maximize a throughput of a basic service set or to maximize a quantity of supported users in an overlapping area of a basic service set. a first sending unit, configured to send a first message to a station, wherein the first message carries indication information indicating that a basic service set is in a fractional frequency reuse mode; a first receiving unit, configured to receive a second message sent by the station, wherein the second message carries indication information indicating that the station supports the fractional frequency reuse mode; an execution unit, configured to communicate with the station in the fractional frequency reuse mode after determining, according to the second message received by the receiving unit, that the station supports the fractional frequency reuse mode; a scanning unit, configured to scan a channel, so as to obtain frequency reuse information of each basic service set surrounding the access point; and a determining unit, configured to determine a frequency reuse manner of the access point according to a reuse policy and the frequency reuse information that is of each basic service set surrounding the access point and that is obtained by the scanning unit, wherein the reuse policy is a frequency allocation manner used by the access point to maximize a throughput of a basic service set or to maximize a quantity of supported users in an overlapping area of a basic service set.
A compound having a structure of Formula: wherein: L 1 is a bond, C 1-6 alkylene, or wherein - - - indicates a double bond, a triple bond, or a fused cyclopropyl; B is C 0-3 alkylene-X; X is an aromatic or nonaromatic C 4-10 carbocycle, or an aromatic or nonaromatic 4-10 membered heterocycle having 1-3 ring heteroatoms selected from N, O, and S; X is substituted with 1-3 G; Each G is independently selected from the group consisting of halo, OH, =O, CN, NO 2, N(R N) 2, N(R N)C C 1-3 alkyl, C 1-3 alkyl, C 1-3 alkoxy, C 1-3 haloalkyl, C 1-3 haloalkoxy, C C 1-3 alkyl, S(O 2)-Z, C -Z, C N(R N) 2, silyl ether, and 0-1 -C 0-3 alkylene-Z; each R N independently is H or C 1-4 alkyl; Z is aromatic or nonaromatic C 3-10 carbocycle, or aromatic or nonaromatic 4-10 membered heterocycle having 1-3 heteroatoms selected from the group consisting of N, O, and S; Z is optionally substituted with 1-3 E; and, each E independently is selected from C 1-3 alkyl, C 1-3 alkoxy, =O, C 1-3 haloalkoxy, CN, and halo R 2 is H; L 2 is C 0-3 alkylene; m is 0 to 2; and each R 4 independently is C 1-3 alkyl, C 2-3 alkynyl, C 1-3 haloalkyl, C 1-3 alkoxy, halo, or NHC 1-3 alkylene-aryl; or a pharmaceutically acceptable salt thereof, wherein the compound or salt thereof is not N-[4-[(3-methyl-1-piperidinyl)methyl]2-thiazolyl)-1-(4-pyridinylmethyl)-1H-pyrrole-2-carboxamide. L 1 is a bond, C 1-6 alkylene, or wherein - - - indicates a double bond, a triple bond, or a fused cyclopropyl; B is C 0-3 alkylene-X; X is an aromatic or nonaromatic C 4-10 carbocycle, or an aromatic or nonaromatic 4-10 membered heterocycle having 1-3 ring heteroatoms selected from N, O, and S; X is substituted with 1-3 G; Each G is independently selected from the group consisting of halo, OH, =O, CN, NO 2, N(R N) 2, N(R N)C C 1-3 alkyl, C 1-3 alkyl, C 1-3 alkoxy, C 1-3 haloalkyl, C 1-3 haloalkoxy, C C 1-3 alkyl, S(O 2)-Z, C -Z, C N(R N) 2, silyl ether, and 0-1 -C 0-3 alkylene-Z; each R N independently is H or C 1-4 alkyl; Z is aromatic or nonaromatic C 3-10 carbocycle, or aromatic or nonaromatic 4-10 membered heterocycle having 1-3 heteroatoms selected from the group consisting of N, O, and S; Z is optionally substituted with 1-3 E; and, each E independently is selected from C 1-3 alkyl, C 1-3 alkoxy, =O, C 1-3 haloalkoxy, CN, and halo R 2 is H; L 2 is C 0-3 alkylene; m is 0 to 2; and each R 4 independently is C 1-3 alkyl, C 2-3 alkynyl, C 1-3 haloalkyl, C 1-3 alkoxy, halo, or NHC 1-3 alkylene-aryl; or a pharmaceutically acceptable salt thereof,
A method comprising: in a chassis comprising a plurality of nodes, a network switch, and a programmable device configured to manage a shared resource of the chassis, establishing, using the network switch, a dedicated network among respective baseboard management controllers of nodes in the plurality of nodes; and using the dedicated network, automatically selecting a given node from the plurality of nodes to function as a master node to program the programmable device on behalf of all nodes in the plurality of nodes to manage the shared resource of the chassis on behalf of all the nodes in the plurality of nodes; and characterised by in the event that the given node receives a communication from a further node from the plurality of nodes indicating that the further node is also, simultaneously, functioning as a master node, selecting as the master node the node having a lower slot ID in the chassis; wherein each of the respective baseboard management controllers of nodes is configured to periodically receive node data, via a broadcasted transmission, from each other node in the plurality of nodes via the dedicated network; and wherein each of the respective baseboard management controllers of the nodes stores, in memory, node data from each other node in the plurality of nodes. in a chassis comprising a plurality of nodes, a network switch, and a programmable device configured to manage a shared resource of the chassis, establishing, using the network switch, a dedicated network among respective baseboard management controllers of nodes in the plurality of nodes; and using the dedicated network, automatically selecting a given node from the plurality of nodes to function as a master node to program the programmable device on behalf of all nodes in the plurality of nodes to manage the shared resource of the chassis on behalf of all the nodes in the plurality of nodes; and characterised by in the event that the given node receives a communication from a further node from the plurality of nodes indicating that the further node is also, simultaneously, functioning as a master node, selecting as the master node the node having a lower slot ID in the chassis; wherein each of the respective baseboard management controllers of nodes is configured to periodically receive node data, via a broadcasted transmission, from each other node in the plurality of nodes via the dedicated network; and wherein each of the respective baseboard management controllers of the nodes stores, in memory, node data from each other node in the plurality of nodes.
A method for manufacturing an optical article, wherein the method comprises providing at least one ophthalmic lens substrate having a surface; applying at least one conductive coating on at least a portion of the ophthalmic lens substrate, wherein the at least one conductive coating comprises a mirror coating; and electroplating the ophthalmic lens substrate to form a plating layer that is in a contacting relationship with the conductive coating of the optical article. providing at least one ophthalmic lens substrate having a surface; applying at least one conductive coating on at least a portion of the ophthalmic lens substrate, wherein the at least one conductive coating comprises a mirror coating; and electroplating the ophthalmic lens substrate to form a plating layer that is in a contacting relationship with the conductive coating of the optical article.
A composite composition comprising a collection of metal/metalloid nitride particles that are chemically bonded through a chemical linkage comprising an amine group, an amide group, a sulfide group, a disulfide group, an alkoxy group, a ester group, an acid anhydride group, the linkage being chemically bonded with a polymer, wherein the inorganic particles have an average primary particle diameter of from 2 nm to 100 nm, measured by transmission electron microscopy.
An aircraft airflow sensor probe comprising: a vane assembly configured to sense a direction of local airflow outside an aircraft; a shaft (14, 18) configured to rotatably hold the vane assembly and allow rotational movement of the vane assembly; at least one accelerometer configured to detect aircraft movement; a sensor configured to sense and output a rotational position of the vane assembly; an angle of attack processor configured to determine at least a measured angle of attack of the aircraft based on the rotational position of the vane assembly; the aircraft airflow sensor probe wherein the at least one accelerometer is configured to provide aircraft movement data to the angle of attack processor; at least one air pressure sensor configured to determine an air pressure received by an air pressure sensor port for calculation of aircraft information that includes at least airspeed; and characterized wherein the angle of attack processor is configured to determine a correction value based on the aircraft movement data provided by the at least one accelerometer and the aircraft information that includes at least airspeed and output a corrected angle of attack of the aircraft. a vane assembly configured to sense a direction of local airflow outside an aircraft; a shaft (14, 18) configured to rotatably hold the vane assembly and allow rotational movement of the vane assembly; at least one accelerometer configured to detect aircraft movement; a sensor configured to sense and output a rotational position of the vane assembly; an angle of attack processor configured to determine at least a measured angle of attack of the aircraft based on the rotational position of the vane assembly; the aircraft airflow sensor probe wherein the at least one accelerometer is configured to provide aircraft movement data to the angle of attack processor; at least one air pressure sensor configured to determine an air pressure received by an air pressure sensor port for calculation of aircraft information that includes at least airspeed; and characterized wherein the angle of attack processor is configured to determine a correction value based on the aircraft movement data provided by the at least one accelerometer and the aircraft information that includes at least airspeed and output a corrected angle of attack of the aircraft.
A method of monitoring a surface temperature of at least one silicon rod in a chemical vapor deposition reactor during a CVD process, the method comprising: capturing an image of an interior of the CVD reactor, the image including a silicon rod; scanning the image to identify a left edge of the silicon rod and a right edge of the silicon rod; identifying a target area midway between the left edge and the right edge; and determining a temperature of the silicon rod in the target area. capturing an image of an interior of the CVD reactor, the image including a silicon rod; scanning the image to identify a left edge of the silicon rod and a right edge of the silicon rod; identifying a target area midway between the left edge and the right edge; and determining a temperature of the silicon rod in the target area.