mhurhangee/ep-ind-claims huggingface dataset:
A winch (100, 200) comprising: a rope; an overwinding sensor coupled to the rope, wherein the overwinding sensor is moveable between a first position and a second position upon winding and/or unwinding of the rope, and wherein the overwinding sensor comprises a first electrically conducting member; a contact member comprising a second electrically conducting member which is contactable by the first electrically conducting member when the overwinding sensor is in the second position, wherein the second electrically conducting member is not contactable by the first electrically conducting member when the overwinding sensor is in the first position; wherein the winch (100, 200) is configured to stop and/or prevent and/or hamper winding of the rope upon establishment of an electrical contact between the first electrically conducting member and the second electrically conducting member when the overwinding sensor is in the second position; and wherein the overwinding sensor further comprises: a support member fixed to the rope; and a resilient member arranged between the support member and the first electrically conducting member, wherein the resilient member is configured to bias the support member in a direction away from the contact member upon winding of the rope while the overwinding sensor is in the second position. a rope; an overwinding sensor coupled to the rope, wherein the overwinding sensor is moveable between a first position and a second position upon winding and/or unwinding of the rope, and wherein the overwinding sensor comprises a first electrically conducting member; a contact member comprising a second electrically conducting member which is contactable by the first electrically conducting member when the overwinding sensor is in the second position, wherein the second electrically conducting member is not contactable by the first electrically conducting member when the overwinding sensor is in the first position; wherein the winch (100, 200) is configured to stop and/or prevent and/or hamper winding of the rope upon establishment of an electrical contact between the first electrically conducting member and the second electrically conducting member when the overwinding sensor is in the second position; and wherein the overwinding sensor further comprises: a support member fixed to the rope; and a resilient member arranged between the support member and the first electrically conducting member, wherein the resilient member is configured to bias the support member in a direction away from the contact member upon winding of the rope while the overwinding sensor is in the second position. a support member fixed to the rope; and a resilient member arranged between the support member and the first electrically conducting member, wherein the resilient member is configured to bias the support member in a direction away from the contact member upon winding of the rope while the overwinding sensor is in the second position.
A power transmitter for wirelessly providing power to a power receiver via an inductive power signal; the power transmitter comprising: a resonance circuit for generating the inductive power signal, the resonance circuit comprising a capacitive impedance and an inductive impedance; a driver for generating a drive signal for the resonance circuit, the drive signal having an operating frequency and being arranged to generate the timing signal to have transitions corresponding to a change in a signal parameter of the timing signal, the transitions being synchronized to the drive signal; and a frequency modification circuit for controlling a resonance frequency of the resonance circuit by slowing a state change for at least one of the capacitive impedance and the inductive impedance for a fractional time interval of each of at least a plurality of cycles of the drive signal, the frequency modification circuit being arranged to align at least one of a start time and an end time for the fractional time interval to at least some transitions of the timing signal; characterized in that the frequency modification circuit being further arranged to control the other time of the at least one of the start time and end time for the fractional time interval to have a fixed time offset relative to a time instant of a signal of at least one of the capacitive impedance and the inductive impedance crossing a threshold. a resonance circuit for generating the inductive power signal, the resonance circuit comprising a capacitive impedance and an inductive impedance; a driver for generating a drive signal for the resonance circuit, the drive signal having an operating frequency and being arranged to generate the timing signal to have transitions corresponding to a change in a signal parameter of the timing signal, the transitions being synchronized to the drive signal; and a frequency modification circuit for controlling a resonance frequency of the resonance circuit by slowing a state change for at least one of the capacitive impedance and the inductive impedance for a fractional time interval of each of at least a plurality of cycles of the drive signal, the frequency modification circuit being arranged to align at least one of a start time and an end time for the fractional time interval to at least some transitions of the timing signal; characterized in that the frequency modification circuit being further arranged to control the other time of the at least one of the start time and end time for the fractional time interval to have a fixed time offset relative to a time instant of a signal of at least one of the capacitive impedance and the inductive impedance crossing a threshold.
A method comprising: sending, by a network node to a mobile device, information indicating whether a cell on a first carrier of a first type is to be used as a reference cell, wherein the reference cell is a pathloss reference cell and/or a timing reference cell, and wherein the first carrier of the first type is part of a carrier aggregation that further includes at least a second carrier of a second, different type; and determining, by the network node, a delay value associated with a modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation. sending, by a network node to a mobile device, information indicating whether a cell on a first carrier of a first type is to be used as a reference cell, wherein the reference cell is a pathloss reference cell and/or a timing reference cell, and wherein the first carrier of the first type is part of a carrier aggregation that further includes at least a second carrier of a second, different type; and determining, by the network node, a delay value associated with a modification of the carrier aggregation, the delay value representing a time delay during which the mobile device is unable to receive signaling from the network node responsive to the modification of the carrier aggregation.
A method for controlling a handheld gimbal, comprising: step 1): receiving an indication to enter a fast following mode input by a user; step 2): updating, based on the indication to enter the fast following mode, control parameters of a camera component in one or more directions, the control parameters of the camera component in the one or more directions comprising the maximum following rate and acceleration of the camera component in the one or more directions; and step 3): controlling, by using the updated control parameters of the camera component in the one or more directions, the rotation of one or more corresponding electric motors in the handheld gimbal, so as to control the movement of the camera component in the one or more directions. step 1): receiving an indication to enter a fast following mode input by a user; step 2): updating, based on the indication to enter the fast following mode, control parameters of a camera component in one or more directions, the control parameters of the camera component in the one or more directions comprising the maximum following rate and acceleration of the camera component in the one or more directions; and step 3): controlling, by using the updated control parameters of the camera component in the one or more directions, the rotation of one or more corresponding electric motors in the handheld gimbal, so as to control the movement of the camera component in the one or more directions.
Droplet deposition apparatus comprising an integrally-formed manifold component, a fluid-flow component, and one or more actuator components (86, 110a, 110b, 410, 430); wherein said one or more actuator components (86, 110a, 110b, 410, 430) provide first and second arrays of fluid chambers (110a, 110b), each fluid chamber having a piezoelectric actuator element and a nozzle (435a, 435b), said piezoelectric actuator element being operable to cause the release in a deposition direction of fluid droplets through said nozzle in response to electrical signals, said arrays of fluid chambers (110a, 110b) extending side-by side in an array direction from a respective first longitudinal end to a respective second, opposite longitudinal end, said array direction being generally perpendicular to said deposition direction; wherein the manifold component is elongate in said array direction and comprises first, second and third manifold chambers (220, 210, 230), said manifold chambers extending side-by-side in said array direction, said first manifold chamber being disposed between said second and third manifold chambers (210, 230); wherein said first manifold chamber is fluidically connected to said second manifold chamber via each of the fluid chambers in said first array and to said third manifold chamber via each of the fluid chambers in said second array; wherein said manifold component further comprises first, second and third conduits (270, 215, 235), said first conduit branching into said second and third conduits (215, 235) at a fluid junction provided by said manifold component and said fluid-flow component together, said second and third conduits (215, 235) being connected respectively to said second and third manifold chambers (210, 230); wherein said fluid-flow component is shaped generally as a plug that is shaped to be received within a corresponding socket provided by said manifold component; and wherein said fluid-flow component is shaped so that it has an adjustable effect on the flows in said second and third conduits (215, 235) to present substantially the same amount of impedance to fluid flow presented by said second and third conduits (215, 235).
A system comprising: - a not self-priming medium pump provided with a pump head for the supply of medium, - a valve which is coupled to the pump head and which comprises a passage which is operated by means of a float, and - an air pump connected to the valve, wherein the system is arranged to control the level of the medium in the pump head by means of the float, whereby the float is shaped such that, when the pump head is filled with medium, the increasing upward force of the float is sufficient to close the passage in time, wherein the passage is formed by a plurality of apertures, which may be different in section and/or located at mutually different distances from one another, or arranged according to a certain pattern, and wherein the valve comprises a flexible valve body which is movably actuated by the float through a tappet, which valve body serves to successively open or close the apertures, characterized in that the flexible valve body is formed as a closed band which, on the one hand, is attached to the end of the tappet and, on the other hand, is secured to a plate in which the apertures are provided in two sections on either side of a fastening strip. - a not self-priming medium pump provided with a pump head for the supply of medium, - a valve which is coupled to the pump head and which comprises a passage which is operated by means of a float, and - an air pump connected to the valve, wherein the system is arranged to control the level of the medium in the pump head by means of the float, whereby the float is shaped such that, when the pump head is filled with medium, the increasing upward force of the float is sufficient to close the passage in time, wherein the passage is formed by a plurality of apertures, which may be different in section and/or located at mutually different distances from one another, or arranged according to a certain pattern, and wherein the valve comprises a flexible valve body which is movably actuated by the float through a tappet, which valve body serves to successively open or close the apertures, characterized in that the flexible valve body is formed as a closed band which, on the one hand, is attached to the end of the tappet and, on the other hand, is secured to a plate in which the apertures are provided in two sections on either side of a fastening strip.
An active energy ray-curable resin composition comprising as essential components: an alkyd resin obtained using a polybasic acid, a polyhydric alcohol and an oil, fat or fatty acid as essential components; an unsaturated bond-containing polymerizable compound; a phenolic compound represented by the following structural formula wherein R 1 is a hydrogen atom or a hydrocarbon group, R 2 's each independently represent a hydrocarbon group, an alkoxy group or a halogen atom, and m is 0 or an integer of 1 to 4); and a photopolymerization initiator which is a compound represented by any one of the following structural formulas, to wherein in 100 parts by mass of the total solid resin content of the active energy ray-curable resin composition, the alkyd resin and the unsaturated bond-containing polymerizable compound are contained in a total amount of 80 parts by mass or more, the mass ratio of the alkyd resin and the unsaturated bond-containing polymerizable compound [ /] is 20/80 to 80/20, and the amount of the phenolic compound in the active energy ray-curable resin composition is in the range of 0.001 to 5 parts by mass based on 100 parts by mass of the solid resin content of the active energy ray-curable resin composition. an alkyd resin obtained using a polybasic acid, a polyhydric alcohol and an oil, fat or fatty acid as essential components; an unsaturated bond-containing polymerizable compound; a phenolic compound represented by the following structural formula wherein R 1 is a hydrogen atom or a hydrocarbon group, R 2 's each independently represent a hydrocarbon group, an alkoxy group or a halogen atom, and m is 0 or an integer of 1 to 4); and a photopolymerization initiator which is a compound represented by any one of the following structural formulas, to wherein in 100 parts by mass of the total solid resin content of the active energy ray-curable resin composition, the alkyd resin and the unsaturated bond-containing polymerizable compound are contained in a total amount of 80 parts by mass or more, the mass ratio of the alkyd resin and the unsaturated bond-containing polymerizable compound [ /] is 20/80 to 80/20, and the amount of the phenolic compound in the active energy ray-curable resin composition is in the range of 0.001 to 5 parts by mass based on 100 parts by mass of the solid resin content of the active energy ray-curable resin composition.
Actuator for an electrohydraulic gas exchange valve train of an internal combustion engine, comprising an actuator housing which can be mounted on the internal combustion engine and has a bore, a hydraulic piston which is mounted in the bore such that it can perform a reciprocating movement for actuating the gas exchange valve, and an axial stop which, in the unmounted state of the actuator housing on the internal combustion engine, limits the piston stroke out of the bore to a mounting stroke, characterized in that the mounting stroke is smaller than a maximum operating stroke, by way of which the hydraulic piston actuates the gas exchange valve, the limitation of the piston stroke to the mounting stroke by way of the axial stop being cancelled merely temporarily and after the actuator is started up.
A user interface device for use in a lighting system comprising a plurality of lighting devices (110, 120), each lighting device being repositionable by a user, and each lighting device comprising a motion sensor (112, 122) configured to detect a motion of the respective lighting device, the user interface device comprising: - a display, - a receiver configured to receive one or more input signals indicative of motions of lighting devices of the plurality of repositionable lighting devices, and characterised by the user interface device comprising: - a processor configured to: determine which lighting device has been most recently repositioned based on the one or more input signals, render a plurality of virtual representations of the plurality of lighting devices on the display, and render an indication on the display indicating the lighting device that has been most recently repositioned. - a display, - a receiver configured to receive one or more input signals indicative of motions of lighting devices of the plurality of repositionable lighting devices, and characterised by the user interface device comprising: - a processor configured to: determine which lighting device has been most recently repositioned based on the one or more input signals, render a plurality of virtual representations of the plurality of lighting devices on the display, and render an indication on the display indicating the lighting device that has been most recently repositioned. determine which lighting device has been most recently repositioned based on the one or more input signals, render a plurality of virtual representations of the plurality of lighting devices on the display, and render an indication on the display indicating the lighting device that has been most recently repositioned.
An in vitro method of diagnosing prostate cancer cell migration and invasion in a subject comprising: a) determining in a sample obtained from the subject an amount of CaMKKβ, wherein the sample from the subject comprises prostate tissue biopsy; and b) comparing the amount of CaMKKβ in the sample from the subject to an amount of the CaMKKβ in a normal prostate control sample; wherein the subject is diagnosed as having prostate cancer cell migration and invasion when the amount of CaMKKβ in the sample from the subject is greater than the amount in the control sample, and wherein the determining comprises contacting the sample with an antibody that specifically binds to a C-terminal portion of CaMKKβ and CaMKKβ splice variants 2 and 7. a) determining in a sample obtained from the subject an amount of CaMKKβ, wherein the sample from the subject comprises prostate tissue biopsy; and b) comparing the amount of CaMKKβ in the sample from the subject to an amount of the CaMKKβ in a normal prostate control sample;
A method for building a three-dimensional object with an additive manufacturing system having a heated build chamber and an extrusion head, the method comprising: feeding a consumable filament to the extrusion head, the consumable filament comprising a core portion and a shell portion at least partially encasing the core portion, wherein the core portion compositionally comprises a first semi-crystalline polymeric material, and wherein the shell portion compositionally comprises a second semi-crystalline polymeric material having a peak crystallization temperature measured pursuant to ASTM D3418-08 that is greater than a peak crystallization temperature of the first semi-crystalline polymeric material measured pursuant to ASTM D3418-08; melting the fed consumable filament in the extrusion head to form a molten material; depositing the molten material in the heated build chamber as an extruded rod that defines at least a portion of a layer of the three-dimensional object, wherein the extruded rod compositionally comprises the first semi-crystalline polymeric material and the second semi-crystalline polymeric material; crystallizing at least a portion of the second semi-crystalline polymeric material of the extruded rod prior to formation of a subsequent layer of the three-dimensional object; and crystallizing at least a portion of the first semi-crystalline polymeric material of the extruded rod after crystallizing the portion of the second semi-crystalline polymeric material. feeding a consumable filament to the extrusion head, the consumable filament comprising a core portion and a shell portion at least partially encasing the core portion, wherein the core portion compositionally comprises a first semi-crystalline polymeric material, and wherein the shell portion compositionally comprises a second semi-crystalline polymeric material having a peak crystallization temperature measured pursuant to ASTM D3418-08 that is greater than a peak crystallization temperature of the first semi-crystalline polymeric material measured pursuant to ASTM D3418-08; melting the fed consumable filament in the extrusion head to form a molten material; depositing the molten material in the heated build chamber as an extruded rod that defines at least a portion of a layer of the three-dimensional object, wherein the extruded rod compositionally comprises the first semi-crystalline polymeric material and the second semi-crystalline polymeric material; crystallizing at least a portion of the second semi-crystalline polymeric material of the extruded rod prior to formation of a subsequent layer of the three-dimensional object; and crystallizing at least a portion of the first semi-crystalline polymeric material of the extruded rod after crystallizing the portion of the second semi-crystalline polymeric material.
A method of transmitting synchronization signals by a first Node B and a second node B in a wireless communication system, comprising: generating a primary synchronization signal for each cell in the first Node B based on a primary synchronization code, PSC, sequence for the cell, wherein at least one primary synchronization code, PSC, sequence is used for multiple cells in the first Node B; and generating a secondary synchronization signal for each cell in the first Node B based on a secondary synchronization code, SSC, sequence for the cell, wherein multiple secondary synchronization code, SSC, sequences are used for the multiple cells in the first Node B; and generating a secondary synchronization signal for each cell in the second node B, based on a different permutation of the multiple SSC sequences for the multiple cells in the second Node B. generating a primary synchronization signal for each cell in the first Node B based on a primary synchronization code, PSC, sequence for the cell, wherein at least one primary synchronization code, PSC, sequence is used for multiple cells in the first Node B; and generating a secondary synchronization signal for each cell in the first Node B based on a secondary synchronization code, SSC, sequence for the cell, wherein multiple secondary synchronization code, SSC, sequences are used for the multiple cells in the first Node B; and
A protection arrangement for a multiphase uninterruptible power supply system comprising a vacuum circuit breaker connected in series with an inductive element, characterized in that said inductive element comprising, in every phase, two series-connected magnetically coupled windings (L1a, L2a, L1b, L2b, L1c, L2c) separated by a tap point (Ta, Tb, Tc), the protection arrangement comprising one first group of protective components per phase, each first group comprising: a first protective component (SA1a, SA1b, SA1c; Ca, Cb, Cc) having a first end connected to a link between the vacuum circuit breaker and the inductive element, and a second end connected to a corresponding tap point (Ta, Tb, Tc), where at least one protective component in each first group is a surge arrester.