mhurhangee/ep-ind-claims huggingface dataset:
A method for protecting an idling wind turbine power system from damage during loss of grid power, the wind turbine power system having a plurality of rotor blades, the method comprising: monitoring an incoming wind direction at the wind turbine power system; when the incoming wind direction is changing at a predetermined attack angle, rotating at least one of the plurality of rotor blades of the wind turbine power system to a pitch angle that is offset from a feather position by a predetermined number of degrees to reduce and/or eliminate flutter phenomenon from occurring, wherein the predetermined number of degrees comprises less than about 10 degrees; utilizing backup energy stored in the wind turbine power system for powering one or more wind turbine components during the loss of grid power, wherein the wind turbine power system further comprises at least one energy storage device for storing the backup energy, and wherein the one or more wind turbine components comprises one or more yaw drive mechanisms; and yawing the nacelle of the wind turbine approximately 180 degrees away from the incoming wind direction when the incoming wind direction is changing at the predetermined attack angle. monitoring an incoming wind direction at the wind turbine power system; when the incoming wind direction is changing at a predetermined attack angle, rotating at least one of the plurality of rotor blades of the wind turbine power system to a pitch angle that is offset from a feather position by a predetermined number of degrees to reduce and/or eliminate flutter phenomenon from occurring, wherein the predetermined number of degrees comprises less than about 10 degrees; utilizing backup energy stored in the wind turbine power system for powering one or more wind turbine components during the loss of grid power, wherein the wind turbine power system further comprises at least one energy storage device for storing the backup energy, and wherein the one or more wind turbine components comprises one or more yaw drive mechanisms; and yawing the nacelle of the wind turbine approximately 180 degrees away from the incoming wind direction when the incoming wind direction is changing at the predetermined attack angle.
A conductive paste composition comprising a silver (Ag) powder, a lithium titanium oxide, a glass frit, a binder, and a solvent, wherein the glass frit comprises 5 to 30 wt% of SiO 2, 50 to 90 wt% of PbO, 0.1 to 10 wt% of Al 2 O 3, and 0.1 to 10 wt% of ZrO 2; or 5 to 30 wt% of SiO 2, 50 to 90 wt% of PbO, 0.1 to 10 wt% of Al 2 O 3, 0.1 to 10 wt% of ZrO 2, 0.1 to 10 wt% of ZnO, and 0.1 to 10 wt% of Li 2 O; and wherein the conductive paste composition comprises, with respect to 100 parts by weight of the paste composition, 60 to 95 parts by weight of the silver powder, 0.1 to 10 parts by weight of the glass frit, 0.1 to 5 parts by weight of the lithium titanium oxide, 1 to 20 parts by weight of the binder, and 1 to 20 parts by weight of the solvent.
An optical component, wherein a part of a waveguide type optical device (201, 202) is fixed to a convex portion of a mount, the optical component comprising: an optical device support base (301, 302) fixed to a sidewall of an unfixed part of the waveguide type optical device (201, 202), wherein the unfixed part is not fixed to the mount; a presser member disposed on the optical device support base (301, 302), while the presser member is opposed to the mount; and a presser support base (311, 312) disposed on the mount to fix the presser member, wherein the optical device support base (301, 302) is interposed between the mount and the presser member such that the optical device support base (301, 302) is slidable in a direction parallel to surfaces of the mount and the presser member. an optical device support base (301, 302) fixed to a sidewall of an unfixed part of the waveguide type optical device (201, 202), wherein the unfixed part is not fixed to the mount; a presser member disposed on the optical device support base (301, 302), while the presser member is opposed to the mount; and a presser support base (311, 312) disposed on the mount to fix the presser member, wherein the optical device support base (301, 302) is interposed between the mount and the presser member such that the optical device support base (301, 302) is slidable in a direction parallel to surfaces of the mount and the presser member.
Device for fixing a post to the surface of a concrete floor comprising at least two parallel filamentary reinforcing or pre-stressing members (10, 11), formed by a bow of metal wire having two legs (2a, 2b), characterised in that one of the legs comprises a loop at its free end and the other leg likewise comprises a loop, each so shaped as to be hooked under one of the filamentary reinforcing members by the loops, one of the legs continuing, after its loop, into a limb which extends substantially perpendicularly to the plane of the bow, whose length is greater than the distance between the two filamentary reinforcing members (10, 11), and of which the free end of the limb is shaped into a loop in a plane substantially parallel to that of the bow, such that the said limb can be elastically braced between the said filamentary members.
An electrical connector assembly, comprising: a first electrically conductive contact member, the first contact member having a non-planar first interface mating surface, the first interface mating surface comprising a plurality of elongated first ridges and a plurality of elongated first valleys; and a second electrically conductive contact member, the second contact member having a non-planar second interface mating surface, the second interface mating surface comprising a plurality of elongated second ridges and a plurality of elongated second valleys, wherein the second interface mating surface is complementary to the first interface mating surface and is configured to engage the first interface mating surface in interlocking engagement whereby the contact surface of the connector assembly is increased, wherein the electrical connector assembly is characterized in that: the first electronically conductive contact member has a substantially triangular or tear drop shape; the second electrically conductive contact member has a substantially circular, substantially elliptical or rounded surface area; and the first contact member comprises an outer portion and an inner portion which is offset from the outer portion, and wherein the inner portion is connected to the outer portion by a step portion. a first electrically conductive contact member, the first contact member having a non-planar first interface mating surface, the first interface mating surface comprising a plurality of elongated first ridges and a plurality of elongated first valleys; and a second electrically conductive contact member, the second contact member having a non-planar second interface mating surface, the second interface mating surface comprising a plurality of elongated second ridges and a plurality of elongated second valleys, wherein the second interface mating surface is complementary to the first interface mating surface and is configured to engage the first interface mating surface in interlocking engagement whereby the contact surface of the connector assembly is increased, wherein the electrical connector assembly is characterized in that: the first electronically conductive contact member has a substantially triangular or tear drop shape; the second electrically conductive contact member has a substantially circular, substantially elliptical or rounded surface area; and the first contact member comprises an outer portion and an inner portion which is offset from the outer portion, and wherein the inner portion is connected to the outer portion by a step portion. the first electronically conductive contact member has a substantially triangular or tear drop shape; the second electrically conductive contact member has a substantially circular, substantially elliptical or rounded surface area; and the first contact member comprises an outer portion and an inner portion which is offset from the outer portion, and wherein the inner portion is connected to the outer portion by a step portion.
A device for fastening to a linear profile of an operating table, with a base element, a fixing part, a jaw part and a toggle lever closure, characterised in that the fixing part and the base element are in an operative connection via a linear profile on a first articulation and a second articulation, and this operatively-connected linear profile comprises a third articulation on which the jaw part is pivotably arranged, the jaw part having a shape-adapted curvature which cooperates with another curvature of the base element such that the jaw is guided along part of the curvature of the base part.
Storage and transport container, comprising the container, the container being a metal container, and a flux-cored wire wound into a coil, the flux-cored wire comprising calcium carbide, the coil having a winding axis and an outer diameter, and the container comprising: a) a bottom plate having a first side and a second side that faces away from the first side, b) an outer wall connected to the bottom plate, c) at least one removal opening for the flux-cored wire, the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil. a) a bottom plate having a first side and a second side that faces away from the first side, b) an outer wall connected to the bottom plate, c) at least one removal opening for the flux-cored wire, the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil. the coil being arranged in the container in such a way that the winding axis of the coil is perpendicular to the bottom plate of the container, the weight of the coil being from 500 kg to 3,000 kg, characterised by at least one cover which is connected to the outer wall and covers and/or closes the removal opening, the cover comprising a seal, the bottom plate, the outer wall and the cover having a liquid-tight interior space that is closed off from the surroundings and intended for safe storage and safe transport of the flux-cored wire wound into the coil.
A method of producing at least one raised area on a container made of a plastics material, the method consisting in: - taking an In-Mold Label or "IML" produced from a film of thickness lying in the range 30 micrometers (μm) to 50 μm; - printing the area(s) on at least one of the faces of the film using an ink or a varnish; - placing the film in the cavity of a mold, so that the printed area or the printed areas is not/are not in contact with said mold; - injecting, into the cavity as equipped with the film, the plastics material simultaneously with an expansion agent, at a first temperature and at a first pressure at which the expansion agent is a supercritical fluid, transforming the mixture of material and of fluids into a complete single-phase solution and then causing the temperature and the pressure to vary, in such a manner as to obtain a super micro-cellular expanded material containing a large number of voids or cells that are suitably distributed inside said material so as to create a micro-cellular internal structure, so that said printed area or said printed areas do not adhere to the molten plastics material, said expansion agent coming to be trapped between the label and the plastics materials, creating a raised effect at the printed area(s). - taking an In-Mold Label or "IML" produced from a film of thickness lying in the range 30 micrometers (μm) to 50 μm; - printing the area(s) on at least one of the faces of the film using an ink or a varnish; - placing the film in the cavity of a mold, so that the printed area or the printed areas is not/are not in contact with said mold; - injecting, into the cavity as equipped with the film, the plastics material simultaneously with an expansion agent, at a first temperature and at a first pressure at which the expansion agent is a supercritical fluid, transforming the mixture of material and of fluids into a complete single-phase solution and then causing the temperature and the pressure to vary, in such a manner as to obtain a super micro-cellular expanded material containing a large number of voids or cells that are suitably distributed inside said material so as to create a micro-cellular internal structure, so that said printed area or said printed areas do not adhere to the molten plastics material, said expansion agent coming to be trapped between the label and the plastics materials, creating a raised effect at the printed area(s).
A surgical instrument comprising: four coagulation elements 6, 7, 8 and 9; at least one cutting element; and an insulator body, wherein the at least one cutting element is placed near the center of the insulator body and separated from the four coagulation elements through the insulator body, wherein the four coagulation elements are configured to coagulate a tissue and/or vessel and said at least one cutting element is configured to cut the tissue and/or vessel, characterized in that the four coagulation elements (6, 7, 8, 9) are placed in respective slots that are positioned in four corners of a rectangle or in four quarters of a circle of the insulator body. four coagulation elements 6, 7, 8 and 9; at least one cutting element; and an insulator body, wherein the at least one cutting element is placed near the center of the insulator body and separated from the four coagulation elements through the insulator body, wherein the four coagulation elements are configured to coagulate a tissue and/or vessel and said at least one cutting element is configured to cut the tissue and/or vessel, characterized in that the four coagulation elements (6, 7, 8, 9) are placed in respective slots that are positioned in four corners of a rectangle or in four quarters of a circle of the insulator body.
A method in a sending system entity for adjusting a channel quality estimate, CQE, associated with a data transfer to a receiving system entity in a mobile communication network, the method comprising the following steps: • communicating one or more probing packets between the sending system entity and the receiving system entity, each probing packet being formatted according to a predefined combination of transmission parameters, and • receiving a Channel State Information, CSI, report from the receiving system entity, characterized by, the further steps of: • sending a Power Measurement Offset, PMO, value to the receiving system, the PMO value being determined based on which probing packets have been successfully and/or unsuccessfully communicated, and • adjusting the CQE based on the received CSI report and on which probing packets that have been successfully and/or unsuccessfully communicated, wherein the received CSI report has been adjusted based on the PMO value by the receiving system entity. • communicating one or more probing packets between the sending system entity and the receiving system entity, each probing packet being formatted according to a predefined combination of transmission parameters, and • receiving a Channel State Information, CSI, report from the receiving system entity, • sending a Power Measurement Offset, PMO, value to the receiving system, the PMO value being determined based on which probing packets have been successfully and/or unsuccessfully communicated, and • adjusting the CQE based on the received CSI report and on which probing packets that have been successfully and/or unsuccessfully communicated, wherein the received CSI report has been adjusted based on the PMO value by the receiving system entity.
A network node device of a communication network, the network node device comprising: physical, PHY, layer circuity configured to transmit and receive data packets via a communication network; and processing circuitry connected to the PHY layer circuitry and configured to: encode a data packet for sending according to a first communication protocol for sending to a second network node during a specified communication time slot; initiate resending of the data packet when the second network node does not respond during a specified acknowledge time slot; and characterized in that the processing circuitry is further configured to: encode the data packet according to a second communication protocol for sending to the second network node for a last retry attempt of a finite number of retry attempts, wherein the time to send the data packet formatted in the second communication protocol extends into the specified acknowledge time slot. physical, PHY, layer circuity configured to transmit and receive data packets via a communication network; and processing circuitry connected to the PHY layer circuitry and configured to: encode a data packet for sending according to a first communication protocol for sending to a second network node during a specified communication time slot; initiate resending of the data packet when the second network node does not respond during a specified acknowledge time slot; and characterized in that the processing circuitry is further configured to: encode the data packet according to a second communication protocol for sending to the second network node for a last retry attempt of a finite number of retry attempts, wherein the time to send the data packet formatted in the second communication protocol extends into the specified acknowledge time slot. encode a data packet for sending according to a first communication protocol for sending to a second network node during a specified communication time slot; initiate resending of the data packet when the second network node does not respond during a specified acknowledge time slot; and characterized in that the processing circuitry is further configured to: encode the data packet according to a second communication protocol for sending to the second network node for a last retry attempt of a finite number of retry attempts, wherein the time to send the data packet formatted in the second communication protocol extends into the specified acknowledge time slot.
A method of providing access to a telecommunications network, the method comprising: receiving, at an internal server associated with the telecommunications network, a request from a third party mobile device associated with a third party user that is not a subscriber of the telecommunications network, wherein the request is to access the telecommunications network; selecting, at the internal server, a subscriber mobile device which is currently suitable to provide the third party mobile device with access to the telecommunications network via peer to peer communications based on a current characteristic of the subscriber mobile device, the subscriber mobile device being associated with a subscriber of the telecommunications network; routing, by the internal server, the request to the selected subscriber mobile device; facilitating, by the internal server, execution of a smart contract that defines terms between the selected subscriber mobile device and the third party mobile device to facilitate access to the telecommunications network for the third party mobile device via peer to peer communications between the selected subscriber mobile device and the third party mobile device, wherein the smart contract includes terms for compensation to be provided to the subscriber of the telecommunications network; and establishing, by the internal server, a peer to peer connection between the selected subscriber mobile device and the third party mobile device in response to the execution of the smart contract. receiving, at an internal server associated with the telecommunications network, a request from a third party mobile device associated with a third party user that is not a subscriber of the telecommunications network, wherein the request is to access the telecommunications network; selecting, at the internal server, a subscriber mobile device which is currently suitable to provide the third party mobile device with access to the telecommunications network via peer to peer communications based on a current characteristic of the subscriber mobile device, the subscriber mobile device being associated with a subscriber of the telecommunications network; routing, by the internal server, the request to the selected subscriber mobile device; facilitating, by the internal server, execution of a smart contract that defines terms between the selected subscriber mobile device and the third party mobile device to facilitate access to the telecommunications network for the third party mobile device via peer to peer communications between the selected subscriber mobile device and the third party mobile device, wherein the smart contract includes terms for compensation to be provided to the subscriber of the telecommunications network; and establishing, by the internal server, a peer to peer connection between the selected subscriber mobile device and the third party mobile device in response to the execution of the smart contract.