mhurhangee/ep-ind-claims huggingface dataset:
Display device for a motor vehicle, comprising a display screen unit, wherein the display screen unit comprises: - a display surface comprising several predetermined subareas (24, 26, 28), and - a sight protection element that is configured to set for each of the subareas (24, 26, 28) a respective degree of a transparency, the display device further comprising - a back lighting module comprising at least one illumination element that is directed to the display screen unit, and - a control module that is configured to provide the display screen unit in a display mode, in which the sight protection element sets a degree of transparency for each of the subareas (24, 26, 28, S1), and wherein the control module is configured: - to determine at least one of the subareas (24, 26, 28), on which a graphical element is displayed; - to change the degree of transparency of the at least one subarea that displays the graphical element (48, S3) only, wherein the degree of transparency of the at least one subarea that displays the graphical element is different to the degree of transparency of the remaining subareas (24, 28); and - to provide a back light by controlling the back lighting module to illuminate the remaining subareas (24, 28, S5) only. - a display surface comprising several predetermined subareas (24, 26, 28), and - a sight protection element that is configured to set for each of the subareas (24, 26, 28) a respective degree of a transparency, the display device further comprising - a back lighting module comprising at least one illumination element that is directed to the display screen unit, and - a control module that is configured to provide the display screen unit in a display mode, in which the sight protection element sets a degree of transparency for each of the subareas (24, 26, 28, S1), and wherein the control module is configured: - to determine at least one of the subareas (24, 26, 28), on which a graphical element is displayed; - to change the degree of transparency of the at least one subarea that displays the graphical element (48, S3) only, wherein the degree of transparency of the at least one subarea that displays the graphical element is different to the degree of transparency of the remaining subareas (24, 28); and - to provide a back light by controlling the back lighting module to illuminate the remaining subareas (24, 28, S5) only. - to determine at least one of the subareas (24, 26, 28), on which a graphical element is displayed; - to change the degree of transparency of the at least one subarea that displays the graphical element (48, S3) only, wherein the degree of transparency of the at least one subarea that displays the graphical element is different to the degree of transparency of the remaining subareas (24, 28); and - to provide a back light by controlling the back lighting module to illuminate the remaining subareas (24, 28, S5) only.
A method of anisoplanatic imaging of objects at long range through the atmosphere, said method comprising: (a) receiving light from a distant object at a pupil; (b) splitting the received light into a first beam directed toward an imager camera and a second beam directed towards a lenslet array of a wavefront sensor to form successive focal plane images in the imager camera and successive wavefront sensor images in a camera of the wavefront sensor, wherein a diversity technique is used, the method being characterised in that the diversity technique is used in the collecting of the wavefront sensor images and comprises moving the lenslet array back and forth along the optical axis of the wavefront sensor camera; the method being further characterised in that it comprises (c) using a forward model technique to jointly update an atmospheric phase volume estimate for each wavefront sensor image and update a point spread function estimate; (d) reconstructing an image of the distant object based on the updated point spread function and atmospheric phase volume estimates; and (e) iteratively performing steps (a) through (d) until atmospheric phase aberrations in the reconstructed image are minimized, wherein the diversity technique is controlled by a computer system, and processes (c) and (d) are performed by the computer system. (a) receiving light from a distant object at a pupil; (b) splitting the received light into a first beam directed toward an imager camera and a second beam directed towards a lenslet array of a wavefront sensor to form successive focal plane images in the imager camera and successive wavefront sensor images in a camera of the wavefront sensor, wherein a diversity technique is used, the method being characterised in that the diversity technique is used in the collecting of the wavefront sensor images and comprises moving the lenslet array back and forth along the optical axis of the wavefront sensor camera; the method being further characterised in that it comprises (c) using a forward model technique to jointly update an atmospheric phase volume estimate for each wavefront sensor image and update a point spread function estimate; (d) reconstructing an image of the distant object based on the updated point spread function and atmospheric phase volume estimates; and (e) iteratively performing steps (a) through (d) until atmospheric phase aberrations in the reconstructed image are minimized,
A transport refrigeration system (TRS, 200) comprising: a refrigeration circuit; one or more TRS components (228, 203-206) connected via an industrial grade communication link (207, 250); characterized by a single point access coordinator connected to the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250) and connected to the refrigeration circuit, wherein the single point access coordinator is configured to communicate with an external device via a commercial grade communication link (207, 252) and configured to relay a message from the external device to an intended TRS component of the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250), wherein the single point access coordinator is configured to: receive a message packed in a communication grade communication protocol from the external device via the commercial grade communication link; unpack the message from the communication grade communication protocol; determine the intended TRS component of the one or more TRS components (228, 203-206) for the message; repack the message in an industrial grade communication protocol; and send the message to the intended TRS component of the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250). a refrigeration circuit; one or more TRS components (228, 203-206) connected via an industrial grade communication link (207, 250); characterized by a single point access coordinator connected to the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250) and connected to the refrigeration circuit, wherein the single point access coordinator is configured to communicate with an external device via a commercial grade communication link (207, 252) and configured to relay a message from the external device to an intended TRS component of the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250), wherein the single point access coordinator is configured to: receive a message packed in a communication grade communication protocol from the external device via the commercial grade communication link; unpack the message from the communication grade communication protocol; determine the intended TRS component of the one or more TRS components (228, 203-206) for the message; repack the message in an industrial grade communication protocol; and send the message to the intended TRS component of the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250). receive a message packed in a communication grade communication protocol from the external device via the commercial grade communication link; unpack the message from the communication grade communication protocol; determine the intended TRS component of the one or more TRS components (228, 203-206) for the message; repack the message in an industrial grade communication protocol; and send the message to the intended TRS component of the one or more TRS components (228, 203-206) via the industrial grade communication link (207, 250).
A method of transferring and mixing ink for printing, comprising: transferring ink from a supply container into a mixing area of a tank through a new ink supply inlet tube, wherein the mixing area has an inverted conical shape; transferring resident ink from a printing device into the mixing area through a resident ink supply inlet tube, wherein the transfers of the new ink and the resident ink into the mixing area are contemporaneous and cause mixing of the new ink and the resident ink; and transferring mixed ink from the mixing area to the printing device through an outlet port situated at bottom of the tank. transferring ink from a supply container into a mixing area of a tank through a new ink supply inlet tube, wherein the mixing area has an inverted conical shape; transferring resident ink from a printing device into the mixing area through a resident ink supply inlet tube, wherein the transfers of the new ink and the resident ink into the mixing area are contemporaneous and cause mixing of the new ink and the resident ink; and transferring mixed ink from the mixing area to the printing device through an outlet port situated at bottom of the tank.
A vehicle, comprising: an engine; a transmission associated with the engine; an engine retarder having a deactivated state and an activated state, the engine retarder configured to reduce a speed of the engine in the activated state; and a fan associated with the engine, the fan assisting in further reducing the speed of the engine while activated, the vehicle being characterised in that the fan is configured to be activated in response to a selection of a transmission gear ratio less than or equal to a threshold gear ratio while the engine retarder is in the activated state, an engine; a transmission associated with the engine; an engine retarder having a deactivated state and an activated state, the engine retarder configured to reduce a speed of the engine in the activated state; and a fan associated with the engine, the fan assisting in further reducing the speed of the engine while activated, the vehicle being characterised in that the fan is configured to be activated in response to a selection of a transmission gear ratio less than or equal to a threshold gear ratio while the engine retarder is in the activated state,
A method in a user equipment, comprising: monitoring a downlink control channel (610, 715, 810, 915) during a duration of at least a first timer (630, 725, 825, 925), wherein the first timer comprises one of an onDurationTimer of a discontinuous reception, DRX, cycle, a drx-InactivityTimer, and a DRX retransmission timer; receiving, on the monitored downlink control channel, an indication of a downlink or uplink transmission (605, 705, 805, 905) for the UE; after receiving the indication of the downlink or uplink transmission for the UE, stopping the first timer, wherein after the first timer is stopped the UE does not need to monitor the downlink control channel; performing an uplink transmission (635, 710, 830, 910) associated with the indicated downlink or uplink transmission for the UE; starting a second timer (645, 735, 840, 935), after receiving the indication of the downlink or uplink transmission for the UE, the duration of the second timer comprising an offset period; the method characterized in that, when the second timer expires, starting a third timer (640, 730, 835, 930), wherein the UE monitors the downlink control channel for the duration of the third timer, and wherein the third timer comprises a drx-InactivityTimer. monitoring a downlink control channel (610, 715, 810, 915) during a duration of at least a first timer (630, 725, 825, 925), wherein the first timer comprises one of an onDurationTimer of a discontinuous reception, DRX, cycle, a drx-InactivityTimer, and a DRX retransmission timer; receiving, on the monitored downlink control channel, an indication of a downlink or uplink transmission (605, 705, 805, 905) for the UE; after receiving the indication of the downlink or uplink transmission for the UE, stopping the first timer, wherein after the first timer is stopped the UE does not need to monitor the downlink control channel; performing an uplink transmission (635, 710, 830, 910) associated with the indicated downlink or uplink transmission for the UE; starting a second timer (645, 735, 840, 935), after receiving the indication of the downlink or uplink transmission for the UE, the duration of the second timer comprising an offset period; the method characterized in that, when the second timer expires, starting a third timer (640, 730, 835, 930), wherein the UE monitors the downlink control channel for the duration of the third timer, and wherein the third timer comprises a drx-InactivityTimer.
A method for installing rivets, the method comprising: positioning a rivet through a structure to be joined; positioning a first rivet gun on a first side of the rivet; positioning a second rivet gun on a second opposite side of the rivet; and synchronizing firing of the first and second rivet guns (102, 104), wherein synchronizing firing of the first and second rivet guns (102, 104) involves synchronizing each impact of the first and second rivet gun (102, 104), the method being characterized in that synchronizing each impact involves timing each impact, which is created by one of the first and second rivet guns (102, 104), to occur at the same time as an impact wave, which is created by the other one of the first and second rivet guns, reaches the side at which the other one of first and second rivet guns (102, 104) is positioned based (i) on a speed of the impact wave travelling through the rivet, (ii) on a force at which the impact occurs, and (iii) on material properties of the rivet, so as to cancel forces that otherwise would propagate into the structure during installation of the rivet,. positioning a rivet through a structure to be joined; positioning a first rivet gun on a first side of the rivet; positioning a second rivet gun on a second opposite side of the rivet; and synchronizing firing of the first and second rivet guns (102, 104), wherein synchronizing firing of the first and second rivet guns (102, 104) involves synchronizing each impact of the first and second rivet gun (102, 104), the method being characterized in that synchronizing each impact involves timing each impact, which is created by one of the first and second rivet guns (102, 104), to occur at the same time as an impact wave, which is created by the other one of the first and second rivet guns, reaches the side at which the other one of first and second rivet guns (102, 104) is positioned based (i) on a speed of the impact wave travelling through the rivet, (ii) on a force at which the impact occurs, and (iii) on material properties of the rivet, so as to cancel forces that otherwise would propagate into the structure during installation of the rivet,.
A rivet assembly comprising: at least one workpiece having a first outer surface and an opposite second outer surface connected by a hole; a blind rivet comprising a body and a tool-side flange, the body including a cylindrical outside surface from the flange to a blind end prior to rivet setting, and a surface of the flange tapering outwardly from the outside surface of the body; and a mandrel comprising an elongated stem extending through the rivet prior to setting, a head laterally larger than the stem prior to rivet setting, and an outwardly tapering shoulder located on the head adjacent the stem; the head being of the type completely pullable through the rivet during rivet setting without severing the head from the stem of the mandrel, wherein the pulling through of the head during setting causes the blind end of the rivet body to outwardly expand and the head of the mandrel to inwardly deform during rivet setting; characterised in that: a countersink is located in each said outer surface (39, 41) of said at least one workpiece, said countersinks being connected by said hole; the flange of the rivet is of the type adapted to be located in the adjacent countersink after rivet setting; and said shoulder of the mandrel includes two differently angled frustoconical, tapered surfaces (105, 107). at least one workpiece having a first outer surface and an opposite second outer surface connected by a hole; a blind rivet comprising a body and a tool-side flange, the body including a cylindrical outside surface from the flange to a blind end prior to rivet setting, and a surface of the flange tapering outwardly from the outside surface of the body; and a mandrel comprising an elongated stem extending through the rivet prior to setting, a head laterally larger than the stem prior to rivet setting, and an outwardly tapering shoulder located on the head adjacent the stem; the head being of the type completely pullable through the rivet during rivet setting without severing the head from the stem of the mandrel, wherein the pulling through of the head during setting causes the blind end of the rivet body to outwardly expand and the head of the mandrel to inwardly deform during rivet setting; characterised in that: a countersink is located in each said outer surface (39, 41) of said at least one workpiece, said countersinks being connected by said hole; the flange of the rivet is of the type adapted to be located in the adjacent countersink after rivet setting; and said shoulder of the mandrel includes two differently angled frustoconical, tapered surfaces (105, 107). a countersink is located in each said outer surface (39, 41) of said at least one workpiece, said countersinks being connected by said hole; the flange of the rivet is of the type adapted to be located in the adjacent countersink after rivet setting; and said shoulder of the mandrel includes two differently angled frustoconical, tapered surfaces (105, 107).
A downhole safety valve for an artificial lifting completion extraction well, in particular of the type driven by reciprocating downhole rod pumps, said valve comprising: - a main body internally hollow and configured to allow a sliding movement of a rod therein, - a sealing system connected to the inner wall of the main body, the sealing system comprising a plurality of reversible elastic elements arranged to surround said rod, - actuating means connected to the sealing system and configured to permit a movement of said reversible elastic elements, characterized in that the hollow of the main body is provided with a conical section region apt to cooperate with the sealing system so that the plurality of reversible elastic elements is movable between a first operating condition wherein the fluid flows through the valve in an outflow area defined between the sealing system and the rod, and a second operating position wherein each of the reversible elastic elements contacts the rod and occupies said outflow area preventing the passage of the fluid through the valve, and wherein each reversible elastic element of said plurality comprises a free end provided with a sealing pad having an impact surface lying on a plane orthogonal to an extraction direction of the fluid, wherein said impact surface provides for an opposing element to the fluid advancement through the valve according to said extraction direction. - a main body internally hollow and configured to allow a sliding movement of a rod therein, - a sealing system connected to the inner wall of the main body, the sealing system comprising a plurality of reversible elastic elements arranged to surround said rod, - actuating means connected to the sealing system and configured to permit a movement of said reversible elastic elements,
A shroud assembly, comprising: a first ring; a second ring aft of the first ring; and a shroud disposed between the first ring and the second ring, the shroud comprising a plurality of circumferentially adjacent shroud segments, wherein each shroud segment of the plurality of circumferentially adjacent shroud segments extends axially from the first ring to the second ring, wherein a first shroud segment defines a first number of vane apertures, characterised in that a second shroud segment defines a second number of vane apertures different from the first number of vane apertures. a first ring; a second ring aft of the first ring; and a shroud disposed between the first ring and the second ring, the shroud comprising a plurality of circumferentially adjacent shroud segments, wherein each shroud segment of the plurality of circumferentially adjacent shroud segments extends axially from the first ring to the second ring, wherein a first shroud segment defines a first number of vane apertures, characterised in that a second shroud segment defines a second number of vane apertures different from the first number of vane apertures.
An apparatus for laying patch cords in a telecommunication rack, the apparatus characterized in: - having at least one cavity for laying a patch cord cable, at least 80 % of volume of said cavity being disposed behind a front panel of said apparatus in the depth of said rack, after placing said apparatus into the rack; - having an aperture at said front panel, which aperture permitting to lay the patch cord cable in said cavity, a width of the cavity being such for ensuring the minimum permissible bent radius of the cable in such a manner that the patch cord cable folded with a bend and passing through said aperture even number of times crosses at least one imaginary geometric plane passing through three points disposed at said front panel. - having at least one cavity for laying a patch cord cable, at least 80 % of volume of said cavity being disposed behind a front panel of said apparatus in the depth of said rack, after placing said apparatus into the rack; - having an aperture at said front panel, which aperture permitting to lay the patch cord cable in said cavity, a width of the cavity being such for ensuring the minimum permissible bent radius of the cable in such a manner that the patch cord cable folded with a bend and passing through said aperture even number of times crosses at least one imaginary geometric plane passing through three points disposed at said front panel.
A method of wireless communication, comprising: monitoring, at a user equipment, UE (701, 800), for a channel reserving signal from a plurality of first base stations or carriers in communication with the UE; characterized in further comprising determining whether the UE has received an uplink or downlink grant for a current frame from the plurality of first base stations or carriers;; and reassigning to one or more second base stations or carriers one or more receive antennas assigned to one or more base stations or carriers of the plurality of first base stations or carriers, in response to detecting no channel reserving signal and in response to determining the UE has received no uplink or downlink grant for the current frame. monitoring, at a user equipment, UE (701, 800), for a channel reserving signal from a plurality of first base stations or carriers in communication with the UE; characterized in further comprising determining whether the UE has received an uplink or downlink grant for a current frame from the plurality of first base stations or carriers;; and reassigning to one or more second base stations or carriers one or more receive antennas assigned to one or more base stations or carriers of the plurality of first base stations or carriers, in response to detecting no channel reserving signal and in response to determining the UE has received no uplink or downlink grant for the current frame.