mhurhangee/patent-ind-claim-en huggingface dataset:
Voltage sensing device for a high-voltage or medium-voltage power-carrying conductor for a power network, such as an inner conductor of a power cable or a cable connector or a bus bar, the voltage sensing device having a tubular shape and an axial passageway defining axial and radial directions , which passageway can receive the power-carrying conductor, the voltage sensing device comprising a) a radially-inner electrode , operable as a first sensing electrode of a sensing capacitor for sensing the voltage of the power-carrying conductor, b) a radially-outer electrode , operable as a second sensing electrode of the sensing capacitor, c) a solid carrier element , at least a first portion of which is arranged between the inner electrode and the outer electrode, the first portion being operable as a dielectric of the sensing capacitor, characterized in that the carrier element comprises a material which has a coefficient of thermal expansion of less than 5x 10 -6 1/K at 20°C, such as a ceramic material. a) a radially-inner electrode , operable as a first sensing electrode of a sensing capacitor for sensing the voltage of the power-carrying conductor, b) a radially-outer electrode , operable as a second sensing electrode of the sensing capacitor, c) a solid carrier element , at least a first portion of which is arranged between the inner electrode and the outer electrode, the first portion being operable as a dielectric of the sensing capacitor, characterized in that the carrier element comprises a material which has a coefficient of thermal expansion of less than 5x 10 -6 1/K at 20°C, such as a ceramic material.
A method in a switch, the method comprising: establishing a static rule to distribute a first flow to a first server and a second flow to a second server; monitoring a first load on the first server and a second load on a second server; when, based on the monitoring, the first server is running at capacity and a third flow is to be distributed to the first server according to the static rule, establishing an exception to the static rule to produce an exception rule, wherein producing the exception rule comprises selecting a third server from a plurality of servers having capacity for distribution, the selecting being based at least in part on how much data would be required to be stored in a flow table for the third flow to be distributed to the third server relative to that which would be required to be stored in a flow table to distribute the third flow to another server of the plurality of servers; distributing the third flow according to the exception rule to a third server with capacity; and storing a flow table for the third flow at the switch, wherein the switch does not store a static rule flow table for the static rule. establishing a static rule to distribute a first flow to a first server and a second flow to a second server; monitoring a first load on the first server and a second load on a second server; when, based on the monitoring, the first server is running at capacity and a third flow is to be distributed to the first server according to the static rule, establishing an exception to the static rule to produce an exception rule, wherein producing the exception rule comprises selecting a third server from a plurality of servers having capacity for distribution, the selecting being based at least in part on how much data would be required to be stored in a flow table for the third flow to be distributed to the third server relative to that which would be required to be stored in a flow table to distribute the third flow to another server of the plurality of servers; distributing the third flow according to the exception rule to a third server with capacity; and storing a flow table for the third flow at the switch, wherein the switch does not store a static rule flow table for the static rule.
An energy delivery device, comprising: a catheter shaft ; and an ablation assembly coupled to the catheter shaft and including an expandable device movable from a collapsed state to a deployed state, an electrode assembly comprising a conduit member , and a plurality of electrodes , each of the electrodes being disposed along the conduit member, and wherein the electrodes are circumferentially and longitudinally offset from one another about and along a longitudinal axis of the ablation assembly when the expandable device is in the deployed state, the plurality of electrodes being configured to deliver energy to a plurality of target regions of an airway that are spaced apart from one another with respect to the longitudinal axis of the ablation assembly when the expandable device is in the deployed state, and wherein the ablation assembly is configured to form lesions which are spaced apart from surface tissue of the airway, wherein the conduit member is fluidly coupleable to a coolant source, and when coupled, each electrode is cooled by coolant moving through the conduit member during energy delivery, wherein when the expandable device is in the deployed state, the conduit member winds at least partially about the expandable device, and the electrodes are positioned against the surface tissue of the airway to deliver energy to the target regions. a catheter shaft ; and an ablation assembly coupled to the catheter shaft and including an expandable device movable from a collapsed state to a deployed state, an electrode assembly comprising a conduit member , and a plurality of electrodes , each of the electrodes being disposed along the conduit member, and wherein the electrodes are circumferentially and longitudinally offset from one another about and along a longitudinal axis of the ablation assembly when the expandable device is in the deployed state, the plurality of electrodes being configured to deliver energy to a plurality of target regions of an airway that are spaced apart from one another with respect to the longitudinal axis of the ablation assembly when the expandable device is in the deployed state, and wherein the ablation assembly is configured to form lesions which are spaced apart from surface tissue of the airway, wherein the conduit member is fluidly coupleable to a coolant source, and when coupled, each electrode is cooled by coolant moving through the conduit member during energy delivery, wherein when the expandable device is in the deployed state, the conduit member winds at least partially about the expandable device, and the electrodes are positioned against the surface tissue of the airway to deliver energy to the target regions.
A current limiter for selectively limiting a rate of change of current in a DC electrical network, the current limiter comprising: a first electrical block including an inductive element ; and a second electrical block including a bidirectional switch , the first electrical block being connected in parallel with the second electrical block between first and second terminals , the first and second terminals being connectable to the DC electrical network, wherein the bidirectional switch is switchable to a first mode to permit current flow through the second electrical block in a first current direction and at the same time inhibit current flow through the second electrical block in a second current direction, the first and second current directions being opposite to each other, and the bidirectional switch is switchable to a second mode to permit current flow through the second electrical block in the second current direction and at the same time inhibit current flow through the second electrical block in the first current direction, and wherein the current limiter further includes a controller to control the switching of the bidirectional switch to each of the modes, characterised in that the controller is configured to selectively control the switching of the bidirectional switch to either of the first and second modes to enable the second electrical block to form a current path that allows current to freewheel around a loop formed by the first and second electrical blocks. a first electrical block including an inductive element ; and a second electrical block including a bidirectional switch , the first electrical block being connected in parallel with the second electrical block between first and second terminals , the first and second terminals being connectable to the DC electrical network, wherein the bidirectional switch is switchable to a first mode to permit current flow through the second electrical block in a first current direction and at the same time inhibit current flow through the second electrical block in a second current direction, the first and second current directions being opposite to each other, and the bidirectional switch is switchable to a second mode to permit current flow through the second electrical block in the second current direction and at the same time inhibit current flow through the second electrical block in the first current direction, and wherein the current limiter further includes a controller to control the switching of the bidirectional switch to each of the modes, characterised in that the controller is configured to selectively control the switching of the bidirectional switch to either of the first and second modes to enable the second electrical block to form a current path that allows current to freewheel around a loop formed by the first and second electrical blocks.
A switch or intersection component in the form of a frog or a tongue rail device, comprising a base component in the form of a frog block or a tongue rail adapter; an interchangeable component in the form of a frog insert or a tongue rail; and at least one detachable connection (28, 30, 32, 34; 216, 218, 220), such as a bolted or clamped connection, by means of which the interchangeable component is connectable to the base component , in particular non-positively and/or positively, characterized by at least one sensor (58; 244) for monitoring the quality of the detachable connection, wherein the sensor is arranged inside the base component (12; 202) and is permanently connected thereto, and wherein a signal, which is representative for the quality of the detachable connection, is generated in the sensor (58; 244) when a rail vehicle passes over the switch or intersection component (10; 200).
A stylus , comprising: a processor ; a radio transceiver ; and memory holding instructions executable by the processor to: before sending a pairing request to a display, receive, by the radio transceiver , a broadcast packet indicating an occupancy of a set of stylus communication slots of the display; determine that at least one stylus communication slot is available based on the broadcast packet; and responsive to determining that the at least one stylus communication slot is available, selectively send, by the radio transceiver , the pairing request to occupy a stylus communication slot based on a pairing request history. a processor ; a radio transceiver ; and memory holding instructions executable by the processor to: before sending a pairing request to a display, receive, by the radio transceiver , a broadcast packet indicating an occupancy of a set of stylus communication slots of the display; determine that at least one stylus communication slot is available based on the broadcast packet; and responsive to determining that the at least one stylus communication slot is available, selectively send, by the radio transceiver , the pairing request to occupy a stylus communication slot based on a pairing request history. before sending a pairing request to a display, receive, by the radio transceiver , a broadcast packet indicating an occupancy of a set of stylus communication slots of the display; determine that at least one stylus communication slot is available based on the broadcast packet; and responsive to determining that the at least one stylus communication slot is available, selectively send, by the radio transceiver , the pairing request to occupy a stylus communication slot based on a pairing request history.
A method, comprising: coupling a metering device to a home area network HAN, in communication with an advanced metering infrastructure , AMI, network; configuring an AMI network interface card , NIC, to provide a data link between the AMI network and one or more HAN devices; receiving , by at least one processor of the metering device configured to access at least one memory , an instruction for a HAN gateway module ; sending the instruction to a transmission agent for routing to the HAN gateway module ; and transmitting , by the transmission agent , the instruction to the HAN gateway module ; transmitting the instruction, by the HAN gateway module , to the one or more HAN devices of the home area network using one or more manufacturer procedures of the one or more HAN devices; wherein the instruction is in a format accepted by the Smart Energy Profile 2.0 standard, and wherein the HAN gateway module , the transmission agent , and the AMI NIC are integrated within the metering device. coupling a metering device to a home area network HAN, in communication with an advanced metering infrastructure , AMI, network; configuring an AMI network interface card , NIC, to provide a data link between the AMI network and one or more HAN devices; receiving , by at least one processor of the metering device configured to access at least one memory , an instruction for a HAN gateway module ; sending the instruction to a transmission agent for routing to the HAN gateway module ; and transmitting , by the transmission agent , the instruction to the HAN gateway module ; transmitting the instruction, by the HAN gateway module , to the one or more HAN devices of the home area network using one or more manufacturer procedures of the one or more HAN devices; wherein the instruction is in a format accepted by the Smart Energy Profile 2.0 standard, and wherein the HAN gateway module , the transmission agent , and the AMI NIC are integrated within the metering device.
A polyester film comprising a polyester (A) composed mainly of polybutylene terephthalate and a polyester (B) composed mainly of polyethylene terephthalate, characterized in that a mass ratio (A/B) between the polyesters (A) and (B) is 70/30 to 55/45, a dry heat shrinkage rate (B) through heat treatment at 200°C for 15 minutes is 350 or less in any of four directions on a film surface consisting of a 0° direction as an arbitrary direction, and a 45° direction, a 90° direction and a 135° direction clockwise from the 0° direction, and a difference between a maximum value and a minimum value of these dry heat shrinkage rates is 5% or less, a thickness variation calculated from the following equation in the four directions is 10% or less: Thickness variation % = T max − T min / T ave × 100 T max : maximum thickness in four directions of polyester film T min : minimum thickness in four directions of polyester film T ave : average thickness in four directions of polyester film, and a crystallization index shown in DSC measurement is 25 to 55 J/g. characterized in that a mass ratio (A/B) between the polyesters (A) and (B) is 70/30 to 55/45, a dry heat shrinkage rate (B) through heat treatment at 200°C for 15 minutes is 350 or less in any of four directions on a film surface consisting of a 0° direction as an arbitrary direction, and a 45° direction, a 90° direction and a 135° direction clockwise from the 0° direction, and a difference between a maximum value and a minimum value of these dry heat shrinkage rates is 5% or less, a thickness variation calculated from the following equation in the four directions is 10% or less: Thickness variation % = T max − T min / T ave × 100 T max : maximum thickness in four directions of polyester film T min : minimum thickness in four directions of polyester film T ave : average thickness in four directions of polyester film, T max : maximum thickness in four directions of polyester film T min : minimum thickness in four directions of polyester film T ave : average thickness in four directions of polyester film, and a crystallization index shown in DSC measurement is 25 to 55 J/g.
Use as perfuming ingredient of a composition of matter comprising from: i) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein carbon 5 of the cyclohexenyl group has an absolute R configuration, the dotted line represents a carbon-carbon single bond or a carbon-carbon double bond and R 1 represents a hydrogen atom or a C 1-3 alkyl group; and ii) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein the dotted line and R 1 have the same meaning as in formula (I); the percentage being relative to the total weight of the composition of matter. i) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein carbon 5 of the cyclohexenyl group has an absolute R configuration, the dotted line represents a carbon-carbon single bond or a carbon-carbon double bond and R 1 represents a hydrogen atom or a C 1-3 alkyl group; and ii) 40 to 60% w/w of compound of formula in the form of any one of its stereoisomers or as a mixture thereof, wherein the dotted line and R 1 have the same meaning as in formula (I);
Pump unit for feeding fuel, preferably diesel fuel, to an internal combustion engine; the pump unit comprising: a head inside which a cylinder extending along an axis (A1) is formed; a pumping piston extending along the axis (A1) and slidingly coupled with the cylinder ; a through-hole which extends from the cylinder towards the outside of the pump unit ; an intake chamber communicating with the cylinder via the hole ; an intake valve which controls the flow of fuel from the intake chamber to the hole ; a cap (23; 123) which is connected to the head , is arranged on the opposite side to the pumping piston and can be selectively fixed along an outer surface of the head so as to close the intake chamber on one side; the head having an annular wall defined by a cylinder portion, the outer surface being defined by the outer surface of the cylinder portion; the cap (23; 123) comprising a cover-piece (23a; 123a) for closing the intake chamber on one side and a ring nut for locking the cover-piece (23a; 123a) in a given position; characterised by the cover-piece (23a; 123a) having an annular contact surface in contact with an annular contact surface of the head , the contact surface of the cover-piece (23a; 123a) and the contact surface of the head being arranged between the inner surface of the annular wall ; and by a sealing element arranged between the cover-piece (23a; 123a) and the inner surface of the annular wall of the head . a head inside which a cylinder extending along an axis (A1) is formed; a pumping piston extending along the axis (A1) and slidingly coupled with the cylinder ; a through-hole which extends from the cylinder towards the outside of the pump unit ; an intake chamber communicating with the cylinder via the hole ; an intake valve which controls the flow of fuel from the intake chamber to the hole ; a cap (23; 123) which is connected to the head , is arranged on the opposite side to the pumping piston and can be selectively fixed along an outer surface of the head so as to close the intake chamber on one side; the head having an annular wall defined by a cylinder portion, the outer surface being defined by the outer surface of the cylinder portion; the cap (23; 123) comprising a cover-piece (23a; 123a) for closing the intake chamber on one side and a ring nut for locking the cover-piece (23a; 123a) in a given position; characterised by the cover-piece (23a; 123a) having an annular contact surface in contact with an annular contact surface of the head , the contact surface of the cover-piece (23a; 123a) and the contact surface of the head being arranged between the inner surface of the annular wall ; and by a sealing element arranged between the cover-piece (23a; 123a) and the inner surface of the annular wall of the head .
A method of manufacturing a wind turbine blade comprising: arranging a plurality of fibre layers in a mould surface ; infusing said plurality of fibre layers with a resin; and curing said resin to form at least a portion of a fibre-composite blade structure, wherein the method further comprises: arranging a portion of said plurality of fibre layers such that said portion of said plurality of fibre layers are kept free from resin during said step of infusing, wherein said at least a portion of a fibre-composite blade structure comprises at least a section of a wind turbine blade trailing edge , wherein said portion of resin-free fibre layers forms a flexible fibre portion projecting from the wind turbine blade trailing edge section. arranging a plurality of fibre layers in a mould surface ; infusing said plurality of fibre layers with a resin; and curing said resin to form at least a portion of a fibre-composite blade structure, wherein the method further comprises: arranging a portion of said plurality of fibre layers such that said portion of said plurality of fibre layers are kept free from resin during said step of infusing, wherein said at least a portion of a fibre-composite blade structure comprises at least a section of a wind turbine blade trailing edge , wherein said portion of resin-free fibre layers forms a flexible fibre portion projecting from the wind turbine blade trailing edge section. arranging a portion of said plurality of fibre layers such that said portion of said plurality of fibre layers are kept free from resin during said step of infusing, wherein said at least a portion of a fibre-composite blade structure comprises at least a section of a wind turbine blade trailing edge , wherein said portion of resin-free fibre layers forms a flexible fibre portion projecting from the wind turbine blade trailing edge section.