mhurhangee/ep-ind-claims huggingface dataset:
A medical device comprising a tubular body and a long axis, wherein the tubular body comprises: (a) at least one layer of porous silk fibroin matrix; and (b) at least one layer of knitted silk fibres, wherein one or more of the layers of knitted silk fibres is present, partially or completely, in an annulate, helical, threaded, spiral, grooved, corrugated or crimped form or profile, wherein the luminal layer is a layer of porous silk fibroin matrix. (a) at least one layer of porous silk fibroin matrix; and (b) at least one layer of knitted silk fibres, wherein one or more of the layers of knitted silk fibres is present, partially or completely, in an annulate, helical, threaded, spiral, grooved, corrugated or crimped form or profile,
A composition comprising: (a) a thiol-terminated polythioether; (b) a polyene comprising a polyvinyl ether and a polyallyl compound; (c) a hydroxy-functional vinyl ether; and (d) a photoinitiator. (a) a thiol-terminated polythioether; (b) a polyene comprising a polyvinyl ether and a polyallyl compound; (c) a hydroxy-functional vinyl ether; and (d) a photoinitiator.
A combustor, comprising: a. an end cap, wherein the end cap includes a first surface and a second surface downstream from the first surface; b. a shroud that circumferentially surrounds at least a portion of the first and second surfaces (30,32); c. a plate that extends radially within the shroud the plate defining a plurality of plate passages that extend axially therethrough; d. a plurality of tubes that extend through the plate and the first and second surfaces (30,32) each tube extending through a corresponding plate passage of the plurality of plate passages; e. a radial gap defined between one or more of the plurality of tubes and the plate at a corresponding plate passage; f. a first purge port that extends through one or more of the plurality of tubes, wherein the first purge port is axially aligned with the plate within the corresponding plate passage. a. an end cap, wherein the end cap includes a first surface and a second surface downstream from the first surface; b. a shroud that circumferentially surrounds at least a portion of the first and second surfaces (30,32); c. a plate that extends radially within the shroud the plate defining a plurality of plate passages that extend axially therethrough; d. a plurality of tubes that extend through the plate and the first and second surfaces (30,32) each tube extending through a corresponding plate passage of the plurality of plate passages; e. a radial gap defined between one or more of the plurality of tubes and the plate at a corresponding plate passage; f. a first purge port that extends through one or more of the plurality of tubes, wherein the first purge port is axially aligned with the plate within the corresponding plate passage.
A safety valve for extraction wells, configured for being installed on an oil well head and for enclosing a portion of a tubular material inserted inside the well, said tubular material being internally hollow and designed for containing and transporting fluids and other substances extracted from the well, the safety valve being provided with a central hole through which the tubular material passes and comprising: - a blocking system (14, 16), configured for firmly keeping the tubular material to be cut fixed with respect to the safety valve; - a cutting and closing group configured for cutting and closing the well under certain operative conditions; and - a sealing mechanism, designed for actuating an hydraulic sealing of the well, after the cutting, wherein the cutting and closing group consists of a hole saw housed in a respective chamber of said cutting and closing group, said hole saw being rotated by a motorized actuation means and being configured for moving in a controlled mode along a substantially orthogonal direction with respect to the development direction of the well, the safety valve being characterized in that the cutting and closing group is provided with a movable protection element which at least partially surrounds the hole saw and which is configured for moving along the same movement direction as the hole saw for arriving into the well and going in contact against the sealing mechanism, said sealing mechanism comprises a sliding closing collar configured for enveloping the tubular material, said sliding closing collar being provided with a sealing portion suitable for forced contact with the movable protection element and being actuated by the hydraulic pressure of a fluid contained in at least one thrust chamber (66, 78) obtained inside the sealing mechanism, so as to effect the hydraulic sealing of the central hole of the safety valve and consequently of the well. - a blocking system (14, 16), configured for firmly keeping the tubular material to be cut fixed with respect to the safety valve; - a cutting and closing group configured for cutting and closing the well under certain operative conditions; and - a sealing mechanism, designed for actuating an hydraulic sealing of the well, after the cutting,
A User Equipment, UE, comprising: receiving circuitry configured to receive a radio resource control, RRC, message that comprises a handover command from a base station; and processing circuitry configured to: refrain from reestablishing a Packet Data Convergence Protocol, PDCP, entity when using a configuration in the handover command to perform a handover procedure, in a case that the RRC message indicates that the PDCP entity does not need to be reestablished. receiving circuitry configured to receive a radio resource control, RRC, message that comprises a handover command from a base station; and processing circuitry configured to: refrain from reestablishing a Packet Data Convergence Protocol, PDCP, entity when using a configuration in the handover command to perform a handover procedure, in a case that the RRC message indicates that the PDCP entity does not need to be reestablished.
An electronic system, comprising: a hand-held controller comprising: a proximity sensing circuit comprising a plurality of proximity sensors (122a, 122b, 122c, 122d), the proximity sensors being configured to sense a plurality of instant proximity values, and the plurality of proximity sensors (122a, 122b, 122c, 122d) being disposed on different positions for detecting finger positions of a hand holding the hand-held controller; and a physical information sensing circuit configured to sense a physical parameter; characterised by that the electronic system further comprises a computing application, executed by a processor, configured to retrieve the instant proximity values and the physical parameter, to calculate a plurality of maximum proximity values or minimum proximity values according to the instant proximity values and the physical parameter, the maximum proximity values or the minimum proximity values being utilized to update a plurality of threshold proximity values of the proximity sensors in determining near status or far status, wherein the physical information sensing circuit comprises a touch sensor, and the physical parameter comprises a percentage of touched area detected by the touch sensor. a hand-held controller comprising: a proximity sensing circuit comprising a plurality of proximity sensors (122a, 122b, 122c, 122d), the proximity sensors being configured to sense a plurality of instant proximity values, and the plurality of proximity sensors (122a, 122b, 122c, 122d) being disposed on different positions for detecting finger positions of a hand holding the hand-held controller; and a physical information sensing circuit configured to sense a physical parameter; a proximity sensing circuit comprising a plurality of proximity sensors (122a, 122b, 122c, 122d), the proximity sensors being configured to sense a plurality of instant proximity values, and the plurality of proximity sensors (122a, 122b, 122c, 122d) being disposed on different positions for detecting finger positions of a hand holding the hand-held controller; and a physical information sensing circuit configured to sense a physical parameter; characterised by that the electronic system further comprises a computing application, executed by a processor, configured to retrieve the instant proximity values and the physical parameter, to calculate a plurality of maximum proximity values or minimum proximity values according to the instant proximity values and the physical parameter, the maximum proximity values or the minimum proximity values being utilized to update a plurality of threshold proximity values of the proximity sensors in determining near status or far status, wherein the physical information sensing circuit comprises a touch sensor, and the physical parameter comprises a percentage of touched area detected by the touch sensor.
A method for communicating between stations over a shared medium, the method comprising: receiving, at a destination station from a repeater station, one or more segments of a payload that originated from an origin station with a sequence of multiple segments, the one or more segments having been transmitted over the shared medium by the origin station and retransmitted by one or more repeater stations including said repeater station; receiving, at the destination station from said repeater station, an indication of which of the sequence of multiple segments were not correctly decoded by any of the one or more repeater stations including said repeater station; generating, at the destination station, based on which of the sequence of multiple segments were not correctly decoded at the destination station and on the indication, acknowledgement information that specifies which of the sequence of multiple segments have been correctly decoded by the destination station; and transmitting the acknowledgement information from the destination station directly to the origin station over the shared medium. receiving, at a destination station from a repeater station, one or more segments of a payload that originated from an origin station with a sequence of multiple segments, the one or more segments having been transmitted over the shared medium by the origin station and retransmitted by one or more repeater stations including said repeater station; receiving, at the destination station from said repeater station, an indication of which of the sequence of multiple segments were not correctly decoded by any of the one or more repeater stations including said repeater station; generating, at the destination station, based on which of the sequence of multiple segments were not correctly decoded at the destination station and on the indication, acknowledgement information that specifies which of the sequence of multiple segments have been correctly decoded by the destination station; and transmitting the acknowledgement information from the destination station directly to the origin station over the shared medium.
Method for operating a wind farm with a plurality of wind energy installations connected to a grid internal to the wind farm, each with its own control unit for considering setpoint values for the reactive power, a transfer point at which the power generated in the wind farm is passed from the grid internal to the wind farm to a supply grid, and with a farm regulatory device for regulating the setpoint values for the reactive power connected with the control units of the wind energy installations, characterized in that when a grid fault occurs, the setpoint values for the reactive power of the farm regulatory device are not considered by the control units in controlling the wind energy installation, and in that after the grid fault has ended, the setpoint values for the reactive power of the farm regulatory device are considered by the control units in controlling the wind energy installation, wherein when a grid fault occurs in the supply grid the setpoint values for the reactive power are frozen in the farm regulatory device and, after the grid fault in the supply grid has ended, the regulation is continued on the basis of the frozen values, and wherein an I-branch is provided in the control system for the setpoint values for the reactive power, whose control error is set to zero or held constant after the grid fault was ended.
A method of assessing useful life remaining for a portion of a wind turbine support structure (14, 16), comprising: performing fatigue life testing of a blank that has been mounted to the portion of the support structure; assessing results of the fatigue life testing of the blank to determine a remaining fatigue life of the blank; and determining useful life remaining of the portion based on the remaining fatigue life of the blank in combination with an expected overall fatigue life of the blank, wherein the fatigue life testing is performed at decommissioning of the support structure. performing fatigue life testing of a blank that has been mounted to the portion of the support structure; assessing results of the fatigue life testing of the blank to determine a remaining fatigue life of the blank; and determining useful life remaining of the portion based on the remaining fatigue life of the blank in combination with an expected overall fatigue life of the blank, wherein the fatigue life testing is performed at decommissioning of the support structure.
Apparatus for selectively connecting to different sources of electric powers, comprising: a) a first connector adapted to connect to a first source of electric power; b) a first cover configured to shield said first connector from coupling to said first source of electric power; c) a second connector adapted to connect to a second source of electric power; and d) a second cover configured to shield said second connector from coupling to said second source of electric power; e) a transit member adapted to mechanically couple said first cover and second cover; wherein the first cover and the second coverare separate; and movement of said first cover results in movement of said second cover via the transit member and vice versa; wherein said first cover is adapted to move between at least a first open position and a first close position; said first cover shielding said first connector when said first cover is at said first close position; said first connector being exposed for connecting to said first source of electric power when said first cover is at said first open position; and wherein said second cover is adapted to move between at least a second open position and a second close position; said second cover shielding said second connector when said second cover is at said second close position; said second connector being exposed for connecting to said second source of electric power when said second cover is at said second open position; and wherein when said first cover is moved from said first close position to said first open position, said second cover is moved from said second open position to said second close position; when said second cover is moved from said second close position to said second open position, said first cover is moved from said first open position to said first close position. a) a first connector adapted to connect to a first source of electric power; b) a first cover configured to shield said first connector from coupling to said first source of electric power; c) a second connector adapted to connect to a second source of electric power; and d) a second cover configured to shield said second connector from coupling to said second source of electric power; e) a transit member adapted to mechanically couple said first cover and second cover;
An intraocular lens insertion apparatus which includes a substantially tubular apparatus body (10, 60) for accommodating an intraocular lens therein and extrudes the intraocular lens through an insertion tube provided in the axial leading end (10a, 60a) of the apparatus body (10, 60) so as to insert the intraocular lens into an eyeball while moving the intraocular lens forward in the axial direction and compactly deforming by an extrusion member inserted into the apparatus body (10, 60) from the rear side in the axial direction, characterized in that a leading end opening (10j, 60j) end surface at the leading end (10a, 60a) of the insertion tube is formed as an inclined surface which is inclined with respect to a plane perpendicular to the center axis of the insertion tube, and the inclined curve of the leading end opening from the upper leading end portion to the lower leading end portion with respect to the plane is continuously formed, the same curvature radius R2 before and after the lower leading end portion is employed, and the curvature radius R4 satisfying the relation of R4 < R2 is employed in the sharp edge shape in the vicinity of the lower leading end portion. a leading end opening (10j, 60j) end surface at the leading end (10a, 60a) of the insertion tube is formed as an inclined surface which is inclined with respect to a plane perpendicular to the center axis of the insertion tube, and the inclined curve of the leading end opening from the upper leading end portion to the lower leading end portion with respect to the plane is continuously formed, the same curvature radius R2 before and after the lower leading end portion is employed, and the curvature radius R4 satisfying the relation of R4 < R2 is employed in the sharp edge shape in the vicinity of the lower leading end portion.
A micro-electro-mechanical systems (MEMS) microphone assembly comprising: an enclosure; a single micro-electro-mechanical systems (MEMS) transducer positioned within the enclosure; and a substrate layer to support the single MEMS transducer; and an application housing to support the substrate layer, the application housing defining at least a portion of a first transmission mechanism to enable a first side of the single MEMS transducer to receive an audio input signal and at least a portion of a second transmission mechanism to enable a second side of the single MEMS transducer to receive the audio input signal, wherein the application housing is one of a handset housing, a headset housing, and a speaker phone housing, wherein the first transmission mechanism includes a first sound aperture, a first acoustic hole, and a first acoustic tube that extends longitudinally between the first sound aperture and the first acoustic hole below the substrate layer, wherein the first sound aperture is arranged beyond the enclosure, and wherein the first acoustic hole is in sound communication with the single MEMS transducer, wherein the second transmission mechanism includes a second sound aperture, a second acoustic hole, and a second acoustic tube that extends longitudinally between the second sound aperture and the second acoustic hole below the substrate layer, wherein the second sound aperture is arranged beyond the enclosure, and wherein the second acoustic hole is in sound communication with the single MEMS transducer. an enclosure; a single micro-electro-mechanical systems (MEMS) transducer positioned within the enclosure; and a substrate layer to support the single MEMS transducer; and an application housing to support the substrate layer, the application housing defining at least a portion of a first transmission mechanism to enable a first side of the single MEMS transducer to receive an audio input signal and at least a portion of a second transmission mechanism to enable a second side of the single MEMS transducer to receive the audio input signal, wherein the application housing is one of a handset housing, a headset housing, and a speaker phone housing, wherein the first transmission mechanism includes a first sound aperture, a first acoustic hole, and a first acoustic tube that extends longitudinally between the first sound aperture and the first acoustic hole below the substrate layer, wherein the first sound aperture is arranged beyond the enclosure, and wherein the first acoustic hole is in sound communication with the single MEMS transducer, wherein the second transmission mechanism includes a second sound aperture, a second acoustic hole, and a second acoustic tube that extends longitudinally between the second sound aperture and the second acoustic hole below the substrate layer, wherein the second sound aperture is arranged beyond the enclosure, and wherein the second acoustic hole is in sound communication with the single MEMS transducer.
A camera module, comprising: a body including a first body, and a second body coupled to the first body; a lens part coupled to the second body; and a circuit board part disposed at an inner space formed by the first body and the second body, and fixed to the first body; wherein the lens part includes at least one lens, wherein the circuit board part is mounted with an image sensor, wherein the second body includes an outer projection part formed on a floor surface and an inner projection part formed the floor surface, wherein a concave part is formed between the inner projection part and the outer projection part, wherein a body part is accommodated in the concave part, wherein a distance in an optical axis direction (C L) between the lens part and the image sensor can be adjusted by a focus adjusting unit, characterized in that the focus adjusting unit comprising the body part is coupled to an upper surface of the circuit board part, wherein the body part comprises a screw thread coupled to a screw thread formed at an inner surface of the second body. a body including a first body, and a second body coupled to the first body; a lens part coupled to the second body; and a circuit board part disposed at an inner space formed by the first body and the second body, and fixed to the first body; wherein the lens part includes at least one lens, wherein the circuit board part is mounted with an image sensor, wherein the second body includes an outer projection part formed on a floor surface and an inner projection part formed the floor surface, wherein a concave part is formed between the inner projection part and the outer projection part, wherein a body part is accommodated in the concave part, wherein a distance in an optical axis direction (C L) between the lens part and the image sensor can be adjusted by a focus adjusting unit, characterized in that the focus adjusting unit comprising the body part is coupled to an upper surface of the circuit board part, wherein the body part comprises a screw thread coupled to a screw thread formed at an inner surface of the second body.