mhurhangee/ep-ind-claims huggingface dataset:
A method for performing discontinuous reception by a user equipment, UE, in a mobile communication system, the method comprising: receiving a first packet from a base station using a first persistent resource during a first period (410, 710), the first persistent resource being included in persistent resources that are periodic resources previously allocated by an upper layer; checking a reception error of the first packet; transmitting feedback information to the base station based on the checking of the reception error; monitoring a reception of a retransmission packet of the first packet during a second period (420, 430, 720) associated with a hybrid automatic repeat request, HARQ, retransmission; determining that temporary resources different from the persistent resource are allocated during the first period or the second period; and receiving at least one second packet using the temporary resources during a third period (610 to 635), wherein a receiver of the UE is turned on in each of the first period and the second period, and the UE is configured to monitor a downlink control channel to check whether the UE is scheduled, during each of the first period and the second period, wherein the feedback information is transmitted after a first time interval from a subframe where the first packet is received, and wherein the second period starts after a second time interval from a subframe where the feedback information is transmitted. receiving a first packet from a base station using a first persistent resource during a first period (410, 710), the first persistent resource being included in persistent resources that are periodic resources previously allocated by an upper layer; checking a reception error of the first packet; transmitting feedback information to the base station based on the checking of the reception error; monitoring a reception of a retransmission packet of the first packet during a second period (420, 430, 720) associated with a hybrid automatic repeat request, HARQ, retransmission; determining that temporary resources different from the persistent resource are allocated during the first period or the second period; and receiving at least one second packet using the temporary resources during a third period (610 to 635), wherein a receiver of the UE is turned on in each of the first period and the second period, and the UE is configured to monitor a downlink control channel to check whether the UE is scheduled, during each of the first period and the second period, wherein the feedback information is transmitted after a first time interval from a subframe where the first packet is received, and wherein the second period starts after a second time interval from a subframe where the feedback information is transmitted.
Regulation method of a premixed gas burner fed with hydrogen H 2 that provides the steps of: a) starting a fan at a predetermined speed Vp to create an aeriform flow F a; b) adding a fuel gas flow F g, mainly and/or essentially composed of hydrogen H 2, to said aeriform flow F a so as to obtain an air and fuel gas mixture M ag with an excess air factor λ ≥ 2.5; c) igniting said air and fuel gas mixture M ag, d) maintaining the combustion of said air and fuel gas mixture M ag for a stabilisation time t s, e) progressively reducing the excess air factor λ up to a value λ target of 1.3 < λ < 2.5, characterised in that said stabilisation time t s ≥ 5 seconds. a) starting a fan at a predetermined speed Vp to create an aeriform flow F a; b) adding a fuel gas flow F g, mainly and/or essentially composed of hydrogen H 2, to said aeriform flow F a so as to obtain an air and fuel gas mixture M ag with an excess air factor λ ≥ 2.5; c) igniting said air and fuel gas mixture M ag, d) maintaining the combustion of said air and fuel gas mixture M ag for a stabilisation time t s, e) progressively reducing the excess air factor λ up to a value λ target of 1.3 < λ < 2.5,
A thin-profile lens (100b, 200b) for a flashlight, comprising: a generally circular lens body having a generally concave front face and a generally convex rear face, wherein the lens body includes: a central portion (106b; 206b) having a convex front surface adapted to direct a light beam in a desired direction; and a transparent annular ring portion surrounding the central portion (106b; 206b), wherein the annular ring portion defines a thickness dimension, and wherein the thickness dimension varies less than 20% over the lens body; and wherein the lens body lacks a rear void adapted for receiving a light source; characterized in that the annular ring portion has a curved cross-sectional profile, a concave front surface, and a convex back surface. a generally circular lens body having a generally concave front face and a generally convex rear face, wherein the lens body includes: a central portion (106b; 206b) having a convex front surface adapted to direct a light beam in a desired direction; and a transparent annular ring portion surrounding the central portion (106b; 206b), wherein the annular ring portion defines a thickness dimension, and wherein the thickness dimension varies less than 20% over the lens body; and wherein the lens body lacks a rear void adapted for receiving a light source; characterized in that the annular ring portion has a curved cross-sectional profile, a concave front surface, and a convex back surface. a central portion (106b; 206b) having a convex front surface adapted to direct a light beam in a desired direction; and a transparent annular ring portion surrounding the central portion (106b; 206b), wherein the annular ring portion defines a thickness dimension, and wherein the thickness dimension varies less than 20% over the lens body; and wherein the lens body lacks a rear void adapted for receiving a light source; the annular ring portion has a curved cross-sectional profile, a concave front surface, and a convex back surface.
A display panel with pressure sensor (10; 10A; 10B; 10C), comprising: a display panel including an image forming panel for controlling light emitted to a front face side to form a displayed image, and a front polarizing plate disposed on the front face side of the image forming panel; a pressure sensor (20; 20A; 20C) having a piezoelectric film formed of a chiral polymer; and a phase compensating film; wherein the pressure sensor (20; 20A; 20C) is disposed adjacent to the front face side of the image forming panel; wherein the pressure sensor and the image forming panel have a gap therebetween; wherein the phase compensating film has a phase difference opposite to a phase difference of the piezoelectric film and the phase compensating film comprises uniaxially drawn polylactic acid; and wherein a uniaxial drawing direction of the piezoelectric film, in the plane of the piezoelectric film is orthogonal to a uniaxial drawing direction of the phase compensating film in the plane of the phase compensating film. a display panel including an image forming panel for controlling light emitted to a front face side to form a displayed image, and a front polarizing plate disposed on the front face side of the image forming panel; a pressure sensor (20; 20A; 20C) having a piezoelectric film formed of a chiral polymer; and a phase compensating film; wherein the pressure sensor (20; 20A; 20C) is disposed adjacent to the front face side of the image forming panel; wherein the pressure sensor and the image forming panel have a gap therebetween; wherein the phase compensating film has a phase difference opposite to a phase difference of the piezoelectric film and the phase compensating film comprises uniaxially drawn polylactic acid; and wherein a uniaxial drawing direction of the piezoelectric film, in the plane of the piezoelectric film is orthogonal to a uniaxial drawing direction of the phase compensating film in the plane of the phase compensating film.
A photoelectric conversion device (100, 20) comprising: a first electrode; an optically transparent second electrode opposing the first electrode; and a photoelectric conversion portion between the first electrode and the optically transparent second electrode, wherein the photoelectric conversion portion includes a light absorption layer made of a p-type chalcopyrite compound semiconductor film, a window layer made of an n-type semiconductor film, and an amorphous oxide semiconductor layer between the light absorption layer and the window layer, characterized in that: the amorphous oxide semiconductor layer is made of amorphous InGaZnO (a-IGZO), magnitude ΔEc of a potential barrier being the conduction band offset between the light absorption layer and the amorphous oxide semiconductor layer is 0.4 eV, the amorphous oxide semiconductor layer has a thickness of 50 to 500 nm. a first electrode; an optically transparent second electrode opposing the first electrode; and a photoelectric conversion portion between the first electrode and the optically transparent second electrode, wherein the photoelectric conversion portion includes a light absorption layer made of a p-type chalcopyrite compound semiconductor film, a window layer made of an n-type semiconductor film, and an amorphous oxide semiconductor layer between the light absorption layer and the window layer, characterized in that: the amorphous oxide semiconductor layer is made of amorphous InGaZnO (a-IGZO), magnitude ΔEc of a potential barrier being the conduction band offset between the light absorption layer and the amorphous oxide semiconductor layer is 0.4 eV, the amorphous oxide semiconductor layer has a thickness of 50 to 500 nm. the amorphous oxide semiconductor layer is made of amorphous InGaZnO (a-IGZO), magnitude ΔEc of a potential barrier being the conduction band offset between the light absorption layer and the amorphous oxide semiconductor layer is 0.4 eV, the amorphous oxide semiconductor layer has a thickness of 50 to 500 nm.
A digital-to-time converter, DTC, assisted all digital phase locked loop, ADPLL, circuit for frame-based and non-frame-based RF transmissions, comprising: a DTC error compensator arranged to receive a phase offset signal (phase_offset) being a processed output from a time-to-digital converter, TDC, circuit, the phase offset signal including a DTC error corresponding to a phase difference between a reference clock signal (Fref) processed by a DTC circuit and a feedback clock signal derived from an output signal of the ADPLL circuit, the compensator being characterized by including: a first circuit arranged with a de-multiplexer and a first multiplexer, and a plurality of low pass filter circuits electrically coupled to the de-multiplexer and the first multiplexer, wherein the de-multiplexer is configured to receive the phase offset signal, the low pass filter circuits are respectively configured to be operated based on the reference clock signal, the de-multiplexer is configured to output the phase offset signal to a selected low pass filter circuit based on a DTC input control word (DTC_sel) of the DTC circuit, said selected low pass filter circuit being configured to filter the phase offset signal to generate a digital signal representative of the DTC error, the first multiplexer being configured to output the digital signal based on the DTC input control word as an output signal (DTC_phase_error) of the compensator, wherein the DTC input control word (DTC_sel) is selected based on a fractional part of a frequency control word (FCW_frc) of the ADPLL, and wherein the output signal from the compensator is arranged to be subtracted from the phase offset signal to obtain a phase rectified signal of the phase offset signal (Phase_err_dtc_comp). a first circuit arranged with a de-multiplexer and a first multiplexer, and a plurality of low pass filter circuits electrically coupled to the de-multiplexer and the first multiplexer, wherein the de-multiplexer is configured to receive the phase offset signal, the low pass filter circuits are respectively configured to be operated based on the reference clock signal, the de-multiplexer is configured to output the phase offset signal to a selected low pass filter circuit based on a DTC input control word (DTC_sel) of the DTC circuit, said selected low pass filter circuit being configured to filter the phase offset signal to generate a digital signal representative of the DTC error, the first multiplexer being configured to output the digital signal based on the DTC input control word as an output signal (DTC_phase_error) of the compensator, wherein the DTC input control word (DTC_sel) is selected based on a fractional part of a frequency control word (FCW_frc) of the ADPLL, and wherein the output signal from the compensator is arranged to be subtracted from the phase offset signal to obtain a phase rectified signal of the phase offset signal (Phase_err_dtc_comp).
Evaluation device for a trailer coupling provided for a towing vehicle, having a coupling carrier, which comprises, in particular, a coupling arm and at whose free end a coupling body, in particular, a coupling ball is arranged for connecting a trailer, and which coupling carrier is fixedly or movably arranged on a mount which is or can be attached to the towing vehicle, wherein the evaluation device has an input interface for a force signal (fx), which is output by a sensor arrangement which has at least one sensor (51, 52) and has the purpose of sensing a traction force (Fx) and/or thrust force which can be caused by a traction load acting on the coupling element during a traction operation of the trailer and represents the traction force (Fx) and/or thrust force, or has a sensor arrangement of this kind integrally, wherein the evaluation device has evaluation means for determining a trailer mass value (ah) of the trailer on the basis of the force signal (fx), wherein in that the evaluation means are configured for determining the trailer mass value (ah) on the basis of an evaluation of at least one spring parameter representing at least one spring property of the trailer coupling, in particular of the coupling carrier, characterised in that the at least one spring parameter (c) forms a component of an equation evaluated by the evaluation device which maps the trailer as a component of a single-mass sway system.
Winding machine, including a rotating winding head and a feeding device suitable for feeding a bundle of insulated electric wires to the winding head; the feeding device comprising a bearing structure carrying an inlet support and guide member, having a distribution of passages each of which is suitable for being passed through by an insulated wire unwound from a respective skein or reel, and an outlet support and guide member, having a corresponding distribution of passages each of which is suitable for being passed through by an insulated wire coming from the inlet support and guide member; the arrangement being such that between said support and guide members (3, 4) there is defined a plurality of adjacent and separate paths, each for a respective insulated wire; at least one of said support and guide members (3, 4) being mounted on said structure in a manner rotatable with respect to the other, about an axis which is essentially parallel to the path of the wires, and being provided with driving means (21, 22) capable of causing a rotation thereof in a predetermined direction and to a predetermined extent, about said axis, such that the emerging bundle of wires is correspondingly twisted; the machine being made in such a way that during the formation of a coil the rotation of the winding head is capable of causing a twist in a predetermined direction of the bundle of wires emerging from the feeding device, and the driving means (21, 22) of the feeding device are predisposed for determining a rotation of said at least one support and guide member such as to cause a pre-twist of said bundle in the opposite direction, capable of cancelling out at least in part said twist; wherein a plurality of flexible conduits extends between the passages of the inlet support and guide member and the passages of the outlet support and guide member, in each of which a respective insulated electric wire extends, and wherein said conduits have their respective ends at least axially constrained to said support and guide members (3, 4), and at least one of said support and guide members (3, 4) is mounted movable from/towards the other support and guide member along the path of said wires.
A plug-in connector for connecting at least one conductor, comprising: a. a base body having a through-going opening and a limit stop, b. at least one tubular conductor holder which is arranged at least partially inside the base body and which is movably arranged therein, wherein in a feed position of the conductor holder a feed stop of the conductor holder acts on the limit stop, c. an anti-kink element which is arranged around a conductor and which protrudes at least partially axially over the base body, d. at least one spring element for positioning the conductor relative to the base body, e. wherein the at least one spring element is clamped between the conductor holder and the anti-kink element, wherein the anti-kink element and the base body are operatively connected together in a mechanical manner and serve for transmitting the force of the spring element, f. wherein the anti-kink element is configured in a sleeve-shaped manner with a through-channel and receives the conductor holder at least partially therein, wherein the through-channel is formed by a channel tube which is shaped into the interior of the anti-kink element, g. wherein the anti-kink element comprises a wall surrounding the channel tube and an end of the base body is received in the anti-kink element between the wall and the channel tube, h. and wherein the anti-kink element comprises a spring stop which is formed by a front surface of the channel tube, a first end of the spring element bearing against said spring stop. a. a base body having a through-going opening and a limit stop, b. at least one tubular conductor holder which is arranged at least partially inside the base body and which is movably arranged therein, wherein in a feed position of the conductor holder a feed stop of the conductor holder acts on the limit stop, c. an anti-kink element which is arranged around a conductor and which protrudes at least partially axially over the base body, d. at least one spring element for positioning the conductor relative to the base body, e. wherein the at least one spring element is clamped between the conductor holder and the anti-kink element, wherein the anti-kink element and the base body are operatively connected together in a mechanical manner and serve for transmitting the force of the spring element, f. wherein the anti-kink element is configured in a sleeve-shaped manner with a through-channel and receives the conductor holder at least partially therein, wherein the through-channel is formed by a channel tube which is shaped into the interior of the anti-kink element, g. wherein the anti-kink element comprises a wall surrounding the channel tube and an end of the base body is received in the anti-kink element between the wall and the channel tube, h. and wherein the anti-kink element comprises a spring stop which is formed by a front surface of the channel tube, a first end of the spring element bearing against said spring stop.
A tubular handling apparatus for handling a tubular, comprising: a mandrel; a carrier coupled to the mandrel; a gripping element for engaging and transferring torque to the tubular; a plate, movable relative to the carrier, for engaging a top end of the tubular; and a release mechanism attached to the carrier, the release mechanism comprising: an anchor attached to the carrier; and an engagement member, coupled to the anchor using a connection device and axially movable relative to the anchor, for limiting travel of the plate, wherein the engagement member is movable independent of movement of the carrier to allow movement of the carrier relative to the gripping element. a mandrel; a carrier coupled to the mandrel; a gripping element for engaging and transferring torque to the tubular; a plate, movable relative to the carrier, for engaging a top end of the tubular; and a release mechanism attached to the carrier, the release mechanism comprising: an anchor attached to the carrier; and an engagement member, coupled to the anchor using a connection device and axially movable relative to the anchor, for limiting travel of the plate, wherein the engagement member is movable independent of movement of the carrier to allow movement of the carrier relative to the gripping element. an anchor attached to the carrier; and an engagement member, coupled to the anchor using a connection device and axially movable relative to the anchor, for limiting travel of the plate, wherein the engagement member is movable independent of movement of the carrier to allow movement of the carrier relative to the gripping element.
A surgical system for treating tissue, comprising: an electric motor; a shaft; an end effector rotatably coupled to said shaft; an articulation joint, wherein said end effector is rotatably coupled to said shaft by said articulation joint; a firing member configured to be moved relative to said end effector; wherein said firing member is operably engageable with said electric motor, and configured to be advanced toward said end effector and retracted away from said end effector by said electric motor; and an articulation driver operably coupled with said end effector, characterized in that said articulation driver is selectively engageable with said firing member such that said articulation driver is operably engaged with said firing member in an engaged configuration and such that said articulation driver is operably disengaged from said firing member in a disengaged configuration, and wherein said firing member is configured to move said articulation driver to rotate said end effector about said articulation joint when said articulation driver and said firing member are in said engaged configuration. an electric motor; a shaft; an end effector rotatably coupled to said shaft; an articulation joint, wherein said end effector is rotatably coupled to said shaft by said articulation joint; a firing member configured to be moved relative to said end effector; wherein said firing member is operably engageable with said electric motor, and configured to be advanced toward said end effector and retracted away from said end effector by said electric motor; and an articulation driver operably coupled with said end effector, characterized in that said articulation driver is selectively engageable with said firing member such that said articulation driver is operably engaged with said firing member in an engaged configuration and such that said articulation driver is operably disengaged from said firing member in a disengaged configuration, and wherein said firing member is configured to move said articulation driver to rotate said end effector about said articulation joint when said articulation driver and said firing member are in said engaged configuration.