mhurhangee/ep-ind-claims huggingface dataset:
An inductive detector operable to measure the relative displacement of two bodies along a measurement path comprising: a first body comprising an electrical intermediate device; and a second body comprising three windings, one being a transmit winding and one being a receive winding (1a, 1b), and the third winding being either a transmit winding or a receive winding, said windings being provided on a substrate having a first surface and a second surface opposite the first surface; wherein said windings are arranged such that relative displacement of the two bodies causes a change in the inductive coupling between said transmit winding and said receive winding, characterised in that each of the windings of which there are two is formed by a convoluted conductor with a first portion extending along the measurement path on the first surface of the substrate and a second portion returning back along the measurement path on the second surface of the substrate, said first and second portion being connected via a connection extending between the first surface and the second surface, said convoluted conductor forming a series of loops defined between the portion of the conductor on the first surface and the portion of the conductor on the second surface, the width of each loop in varying along said measurement path and adjacent loops having opposite electromagnetic polarity, and further characterised in that the windings of which are two are spaced apart along an axis normal to the measurement path. a first body comprising an electrical intermediate device; and a second body comprising three windings, one being a transmit winding and one being a receive winding (1a, 1b), and the third winding being either a transmit winding or a receive winding, said windings being provided on a substrate having a first surface and a second surface opposite the first surface; wherein said windings are arranged such that relative displacement of the two bodies causes a change in the inductive coupling between said transmit winding and said receive winding, characterised in that each of the windings of which there are two is formed by a convoluted conductor with a first portion extending along the measurement path on the first surface of the substrate and a second portion returning back along the measurement path on the second surface of the substrate, said first and second portion being connected via a connection extending between the first surface and the second surface, said convoluted conductor forming a series of loops defined between the portion of the conductor on the first surface and the portion of the conductor on the second surface, the width of each loop in varying along said measurement path and adjacent loops having opposite electromagnetic polarity, and further characterised in that the windings of which are two are spaced apart along an axis normal to the measurement path.
A method to be performed by a relay drone, comprising the steps of: receiving, at the relay drone, a relay drone control signal generated by a base station, the relay drone configured to maintain a navigational pattern in response to receiving the relay drone control signal; receiving a working drone control signal generated by the base station, the working drone control signal configured to control a working drone; sending the working drone control signal to a working drone location; receiving a data signal generated by the working drone; sending the data signal to a base station location; and characterized in further comprising the step of: moving from a first relay drone location to a second relay drone location with greater working drone control signal reception than the first relay drone location. receiving, at the relay drone, a relay drone control signal generated by a base station, the relay drone configured to maintain a navigational pattern in response to receiving the relay drone control signal; receiving a working drone control signal generated by the base station, the working drone control signal configured to control a working drone; sending the working drone control signal to a working drone location; receiving a data signal generated by the working drone; sending the data signal to a base station location; and characterized in further comprising the step of: moving from a first relay drone location to a second relay drone location with greater working drone control signal reception than the first relay drone location.
A method for performing balance adjustment on egress traffic of a software-defined networking, SDN, based Internet data center, IDC, network, wherein the IDC network comprises: a data center provider edge, DPE, a traffic analysis device and an SDN controller that are connected to the DPE, and a policy management device connected to the traffic analysis device and the SDN controller; and the DPE is connected to multiple core network provider edges, CPEs, in a public network by using multiple egress links, wherein the method comprises: sending, by the policy management device, group information of at least one autonomous system, AS, group to the SDN controller, wherein the group information is used by the SDN controller to generate an AS filtering policy and deliver the AS filtering policy to the DPE, and each AS group in the at least one AS group comprises one or more ASs; obtaining, by the policy management device, by using the traffic analysis device, AS traffic information that is obtained by the DPE through statistics collection according to the AS filtering policy, wherein the AS traffic information comprises: information about traffic of an AS group that flows through the multiple egress links from the DPE to the multiple CPEs; generating, by the policy management device, a traffic adjustment policy according to the AS traffic information, wherein the traffic adjustment policy is used to instruct to adjust traffic of at least one destination AS group in the at least one AS group to at least one destination egress link in the multiple egress links; and sending, by the policy management device, the traffic adjustment policy to the SDN controller, wherein the traffic adjustment policy is used by the SDN controller to control the DPE to adjust egress traffic. sending, by the policy management device, group information of at least one autonomous system, AS, group to the SDN controller, wherein the group information is used by the SDN controller to generate an AS filtering policy and deliver the AS filtering policy to the DPE, and each AS group in the at least one AS group comprises one or more ASs; obtaining, by the policy management device, by using the traffic analysis device, AS traffic information that is obtained by the DPE through statistics collection according to the AS filtering policy, wherein the AS traffic information comprises: information about traffic of an AS group that flows through the multiple egress links from the DPE to the multiple CPEs; generating, by the policy management device, a traffic adjustment policy according to the AS traffic information, wherein the traffic adjustment policy is used to instruct to adjust traffic of at least one destination AS group in the at least one AS group to at least one destination egress link in the multiple egress links; and sending, by the policy management device, the traffic adjustment policy to the SDN controller, wherein the traffic adjustment policy is used by the SDN controller to control the DPE to adjust egress traffic.
A method for assembling, a wind power generation system using a carriage including a vehicle body and a rack, the wind power generation system comprising a rotor including a hub and blades, a nacelle for accommodating therein at least a generator connected to the rotor via a main shaft connected to the hub, and a tower supporting the nacelle on a top portion thereof, and having an opposite side thereof to the top portion fixed to a foundation, the tower including separated tower parts, the method of assembling the wind power generation system comprising the steps of: - mounting and fixing each of the respective separated tower parts of the tower on the rack of a respective carriage in a direction that makes an axial direction of the respective tower part substantially horizontal, - moving and connecting the carriages on which separated tower parts of the tower are mounted to each other in this state, - aligning the separated tower parts of the tower, after being mounted and fixed to respective racks of carriages, by moving the racks by an alignment mechanism included in the carriage, the alignment mechanism being configured to allow the rack of the carriage to move with respect to the vehicle body in at least two axial directions of three axial directions X, Y, and Z, and to rotate with respect to the vehicle body around at least two axial directions of three axial directions X, Y, and Z, - coupling and fixing the aligned tower parts together to form the tower, and coupling and fixing the nacelle and the uppermost tower part of the tower together. - mounting and fixing each of the respective separated tower parts of the tower on the rack of a respective carriage in a direction that makes an axial direction of the respective tower part substantially horizontal, - moving and connecting the carriages on which separated tower parts of the tower are mounted to each other in this state, - aligning the separated tower parts of the tower, after being mounted and fixed to respective racks of carriages, by moving the racks by an alignment mechanism included in the carriage, the alignment mechanism being configured to allow the rack of the carriage to move with respect to the vehicle body in at least two axial directions of three axial directions X, Y, and Z, and to rotate with respect to the vehicle body around at least two axial directions of three axial directions X, Y, and Z, - coupling and fixing the aligned tower parts together to form the tower, and
A device for the photothermal analysis of multiple samples (12, 12'), with a temperature-controlled sample chamber, in which a multiple sample holder is accommodated in order to simultaneously arrange multiple samples (12, 12') in the sample chamber, wherein means for respectively selecting one of the multiple samples (12, 12') as a sample to be currently analyzed are provided, an excitation source (14, 20, 22) for generating an electromagnetic excitation beam that is directed at an excitation side of the sample to be currently analyzed, a detector for detecting thermal radiation emitted from a detection side of the sample to be currently analyzed, and a program-controlled control device for selecting the sample to be currently analyzed and for carrying out a desired tempering of the sample to be currently analyzed as part of a measuring program for analyzing the multiple samples (12, 12'), characterized in that an adjustable optical detection system comprising at least one refractive optical element and/or one reflective optical element is provided between the sample holder and the detector and can be automatically adjusted by means of the control device in order to adjust a variable field of vision of the detector on the sample surface, wherein the control device is designed for taking into consideration dimensional parameters of the samples (12, 12'), which can be input by a user beforehand, in the automatic adjustment of the field of vision of the detector as part of the measuring program in such a way that a desired field of vision for the sample to be currently analyzed is respectively adjusted.
A bandwidth information notification method, comprising: obtaining (102, 203), by a network node, a current bandwidth value of a microwave link wherein the current bandwidth value of the microwave link varies with weather; sending (103, 204) periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection, wherein the service connection is established on a path involving a plurality of network nodes, a link between at least one pair of adjacent network nodes in the plurality of network nodes is the microwave link, and the network node is one of the at least one pair of adjacent network nodes. obtaining (102, 203), by a network node, a current bandwidth value of a microwave link wherein the current bandwidth value of the microwave link varies with weather; sending (103, 204) periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection, wherein the service connection is established on a path involving a plurality of network nodes, a link between at least one pair of adjacent network nodes in the plurality of network nodes is the microwave link, and the network node is one of the at least one pair of adjacent network nodes.
A plasma gun extension system comprising: a plasma extension arm; an adjustable plasma spray gun connected to the plasma extension arm, the adjustable plasma spray gun including: an electrode body housing an electrode; and a plasma spray gun body having a fore portion and an aft portion, the aft portion having an axial opening configured to removably attach to one of the electrode or a first coupler; the plasma gun extension system further comprising: an arm connector disposed on the plasma extension arm and configured to connect to the adjustable plasma spray gun; an arm coupler disposed on the plasma extension arm and configured to connect the plasma extension arm to a robotic arm; and a set of feed conduits disposed on the plasma extension arm between the arm coupler and the arm connector, the set of feed conduits configured to supply a flow to the adjustable plasma spray gun: wherein a length of the plasma extension arm is adjustable. a plasma extension arm; an adjustable plasma spray gun connected to the plasma extension arm, the adjustable plasma spray gun including: an electrode body housing an electrode; and a plasma spray gun body having a fore portion and an aft portion, the aft portion having an axial opening configured to removably attach to one of the electrode or a first coupler; the plasma gun extension system further comprising: an arm connector disposed on the plasma extension arm and configured to connect to the adjustable plasma spray gun; an arm coupler disposed on the plasma extension arm and configured to connect the plasma extension arm to a robotic arm; and a set of feed conduits disposed on the plasma extension arm between the arm coupler and the arm connector, the set of feed conduits configured to supply a flow to the adjustable plasma spray gun: wherein a length of the plasma extension arm is adjustable. an electrode body housing an electrode; and a plasma spray gun body having a fore portion and an aft portion, the aft portion having an axial opening configured to removably attach to one of the electrode or a first coupler; the plasma gun extension system further comprising: an arm connector disposed on the plasma extension arm and configured to connect to the adjustable plasma spray gun; an arm coupler disposed on the plasma extension arm and configured to connect the plasma extension arm to a robotic arm; and a set of feed conduits disposed on the plasma extension arm between the arm coupler and the arm connector, the set of feed conduits configured to supply a flow to the adjustable plasma spray gun: wherein a length of the plasma extension arm is adjustable. an arm connector disposed on the plasma extension arm and configured to connect to the adjustable plasma spray gun; an arm coupler disposed on the plasma extension arm and configured to connect the plasma extension arm to a robotic arm; and a set of feed conduits disposed on the plasma extension arm between the arm coupler and the arm connector, the set of feed conduits configured to supply a flow to the adjustable plasma spray gun: wherein a length of the plasma extension arm is adjustable.
A curable organosilicon resin composition comprising; an organopolysiloxane having a resin structure comprising 10 to 60 mol% of an R 1 SiO 3/2 unit, 30 to 80 mol% of an (R 2) 2 SiO 2/2 unit, and 1 to 30 mol% of an (R 3) 3 SiO 1/2 unit, wherein at least a part of the (R 2) 2 SiO 2/2 unit is in continuous repeating units with the average number of the repeating units being 3 to 80, wherein each of R 1 and R 3 independently represents any of a hydrogen atom, a hydroxy group, a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, a substituted or unsubstituted aryl group having 6 to 10 carbon atoms, and a substituted or unsubstituted alkoxy group having 1 to 10 carbon atoms; each R 2 independently represents any of a hydrogen atom, a hydroxy group, a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, a substituted or unsubstituted aryl group having 6 to 10 carbon atoms, and a substituted or unsubstituted alkoxy group having 1 to 10 carbon atoms, and among the whole R 2 s, 40 to 100 mol% is a methyl group; the organopolysiloxane has a weight average molecular weight of 5,000 to 50,000; the amount of the hydroxy groups bonded to silicon atoms of the organopolysiloxane is 0.001 to 1.0 mol/100g; and the amount of the alkoxy groups, each having 1 to 10 carbon atoms, bonded to silicon atoms of the organopolysiloxane is 1.0 mol/100g or less.
A mobile and automated apparatus for detection and classification of damage on vehicle bodies, comprising a support structure defining a passage area for a motor vehicle having a body; said support structure supporting lighting means adapted to project a grid pattern on the surface of said body; said support structure further supporting speed measurement means adapted to measure the speed of said vehicle in said passage area, distance measurement means (7, 8, 9) to measure the distance of the vehicle body from the support structure, and image recording means to capture moving images of said pattern reflected by said surfaces; said apparatus further comprising an image processing unit that processes said pattern reflected by said surfaces and captured by said image recoding means, and simultaneously processes the signals from said speed and distance measurement means (6, 7, 8, 9) to timely synchronize the distance measurements with said moving images, in order to count and classify damages on said vehicle body.
Electrical equipment for a line transmitting medium, high or very high voltage electric current comprising a metal vessel, at least one lead arranged inside the vessel which extends parallel to a main axis of the vessel, a carrier made of insulating material which lies in a radial plane relative to said main axis of the vessel, which is connected to the lead on the one hand and to the vessel on the other hand and pins for mechanical connection of the carrier to the vessel, which are mounted on the vessel, characterised in that each pin is mounted radially through an associated aperture of the vessel, which radially opens to the outside and comprises an internal radial end which co-operates with the carrier.
A protective circuit comprising a low melting metal (31 a, 31 b) connectable to a charging/ discharging current path in series between a battery unit composed by one or more chargeable/ dischargeable battery cells (11, 12, 13, 14) and a charging/ discharging control circuit; the low melting metal (31a, 31b) being melted and disrupted on heating; and a heating unit composed by a plurality of resistors (32a, 32b) that, when fed with current, emit heat that melts the low melting metal (31a, 31b); characterized in that, the plurality of resistors (32a, 32b) are connected in series with each other, one of two ends of the series connection of the plurality of resistors (32a, 32b) is connected to a current path of the low melting metal (31a, 31b); and in that the ends of the resistors (32a, 32b) not connected to the low melting metal (31a, 31b) carry a plurality of terminals (33a, 33b) which are selectable, in accordance with the battery voltage of the battery unit, for connection to a current control element (50, 51, 52) that is adapted to control the current flowing through the heating unit.
A polycarbonate, comprising a repeating unit represented by the following Chemical Formula 1: in Chemical Formula 1, X is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, Y is oxygen, or sulfur, and n is an integer of 1 to 10. X is C 6-60 arylene unsubstituted or substituted with C 1-10 alkyl, Y is oxygen, or sulfur, and n is an integer of 1 to 10.
A node of a wireless local area network, WLAN, system, wherein the node is a first node, and comprises a receiver and a transmitter; the receiver is configured to receive a request message sent by a second node of the WLAN system, wherein the first node and the second node belong to a same basic service set, BSS; and the transmitter is configured to send a response message to the second node, wherein the response message comprises an identifier of the BSS to which the first node belongs, wherein the identifier of the BSS to which the first node belongs comprises a BSS color, and the identifier of the BSS to which the first node belongs is located in a duration field of the response message, wherein the identifier of the BSS to which the first node belongs is located at a preset bit in the duration field of the response message, and wherein the duration field is located in a media access control, MAC, header of the response message, wherein the first node further comprises a processor, and the processor is configured to: configure another bit in the duration field of the response message, so that a duration corresponding to said duration field is greater than or equal to a preset duration, to indicate, to a third node that the identifier of the BSS to which the first node belongs exists at the preset bit in the duration field of the response message.