mhurhangee/ep-ind-claims huggingface dataset:
Locking device (100, 200, 300) for an axle (151, 251, 351) comprising a carrier for an axle (151, 21, 351) or comprising an axle (151, 251, 351), a cylinder (110, 210, 310) for a fluid, which has a cylinder wall, and comprising a piston (120, 220, 320) which is arranged in the cylinder (110, 210, 310) and is sealed against the cylinder wall at least in sections or at certain points, so that the interior of the cylinder (110, 210, 310) is subdivided into a first volume (111, 211, 311) and a second volume (112, 212, 312), which is separated from the first volume (111, 211, 311) by the piston (120, 220, 320), and also comprising a mechanical connection (140, 240, 340) between the piston (120, 220, 320) on the one hand and the carrier for the axle (151, 251, 351) or the axle (151, 251, 351) itself on the other hand, so that the position of the piston (120, 220, 320) in the cylinder (110, 210, 310) determines the orientation of the carrier for the axle (151, 251, 351) or the orientation of the axle (151, 251, 351) itself, and vice versa, wherein the first volume (111, 211, 311) is connected to the second volume (112, 212, 312) via a line system (130, 230, 330) which has a line section (131, 231, 331) in which a non-return valve (132, 232, 332) is arranged, characterised in that the mechanical connection (140, 240, 340) is implemented as a toothing (121, 221, 321) which is provided in the piston (120, 220, 320) or on the piston (120, 220, 320) and engages directly or indirectly into a gear wheel (141, 241, 341) on which the carrier for the axle (151, 251, 351) is arranged or which is formed by a portion of the axle (151, 251, 351).
A supporting device for laying a pipeline on the bed of a body of water, the supporting device (6; 24) comprising a frame connectable in a sliding manner to a pipeline extending along a longitudinal axis between a laying vessel and the bed of a body of water; at least one floating body connected to the frame; and at least one connecting mechanism connecting the frame to the floating body and designed to define a distance between the axis of the pipeline and the floating body, so as to apply a torque to the portion of pipeline at the frame, wherein the connecting mechanism is of variable geometry, so as to adjust the distance between the axis of the pipeline and the floating body and the amount of torque applied and comprises two arms (11, 12) hinged to the frame and the floating body to form an articulated quadrilateral.
A method of operating a gas turbine engine comprising a fan shaft driving a fan, a frame which supports said fan shaft, a plurality of gears which drives the fan shaft, a flexible support which at least partially supports said plurality of gears, said flexible support having a lesser stiffness than said frame, a high pressure turbine, and a low pressure turbine, said low pressure turbine being configured to drive one of said plurality of gears, characterised in that: the method comprises operating the engine such that a ratio of a thrust provided by said engine to a volume of a turbine section, including both said high pressure turbine and said low pressure turbine, is greater than or equal to 4.0 lbf/inch 3 (1086 kN/m 3) and less than or equal to 5.5 lbf/inch 3 (1493 kN/m 3), wherein said thrust is sea level take-off, flat-rated static thrust.
An air maintenance tire comprising: a tire cavity bounded by first and second sidewalls extending to a tire tread region; air pumping means for generating pressurized air for maintaining air pressure within the tire cavity at a preset pressure level; and a valve housing disposed adjacent an outward end of a valve stem, wherein the valve housing is operative to selectively open and close pressurized air flow from an internal passageway of the valve stem into the tire cavity; wherein the first sidewall comprises at least one bending region operatively bending within a rolling tire footprint and a sidewall groove or passageway positioned within the bending region of the first tire sidewall, the sidewall groove or passageway deforming segment by segment between a non-deformed state and a deformed, constricted state in response to the bending of the first sidewall bending region within the rolling tire footprint; and wherein the air pumping means is at least partially located in at least one bending region of the first sidewall operatively bending when adjacent a tire footprint; characterized in that the air pumping means comprises a soft or elastic tubing (30, 80, 101, 102) and one or more compression fittings; and in that the valve housing is connected to the air pumping means by the soft or elastic tubing (30, 80, 101, 102) and the compression fittings for mitigating a dynamic loading on the compression fittings. a tire cavity bounded by first and second sidewalls extending to a tire tread region; air pumping means for generating pressurized air for maintaining air pressure within the tire cavity at a preset pressure level; and a valve housing disposed adjacent an outward end of a valve stem, wherein the valve housing is operative to selectively open and close pressurized air flow from an internal passageway of the valve stem into the tire cavity; wherein the first sidewall comprises at least one bending region operatively bending within a rolling tire footprint and a sidewall groove or passageway positioned within the bending region of the first tire sidewall, the sidewall groove or passageway deforming segment by segment between a non-deformed state and a deformed, constricted state in response to the bending of the first sidewall bending region within the rolling tire footprint; and wherein the air pumping means is at least partially located in at least one bending region of the first sidewall operatively bending when adjacent a tire footprint; characterized in that the air pumping means comprises a soft or elastic tubing (30, 80, 101, 102) and one or more compression fittings; and in that the valve housing is connected to the air pumping means by the soft or elastic tubing (30, 80, 101, 102) and the compression fittings for mitigating a dynamic loading on the compression fittings.
Method of customizing and manufacturing tooling for preparing an osteotomy for receiving a dental implant, the method comprising the steps of: - receiving scan data modeling a planned position of the osteotomy and surrounding jaw bone area; - generating on the basis of the scan data a virtual implant model of the dental implant; - generating a virtual tooling model of the tooling on basis of the virtual implant model; - computer aided manufacturing of the tooling on the basis of the virtual tooling model. - receiving scan data modeling a planned position of the osteotomy and surrounding jaw bone area; - generating on the basis of the scan data a virtual implant model of the dental implant; - generating a virtual tooling model of the tooling on basis of the virtual implant model; - computer aided manufacturing of the tooling on the basis of the virtual tooling model.
A tool for disassembling and moving a TRV-type turbine casing of an aircraft turbine engine, this turbine casing comprising two annular shells, internal and external respectively, which extend one inside the other and around a same axis and are connected together by arms, the tool comprising: - a lower carriage for moving the tool, and - an upper plate for fastening to the turbine casing, this plate being supported by the carriage and comprising first members configured to cooperate with a first annular flange (24a2, 24b2) of one of the shells (24a, 24b) in order to support the casing and axially immobilize same with respect to the tool, and second members configured to cooperate with a second annular flange (24b1) of the other of the shells (24b, 24a) in order to rotatably guide and/or block the casing about said axis, characterised in that the first members comprise hooks which are each connected to a knob and movable by the knob from a first unlocking position to a second position for locking and immobilizing the casing. - a lower carriage for moving the tool, and - an upper plate for fastening to the turbine casing, this plate being supported by the carriage and comprising first members configured to cooperate with a first annular flange (24a2, 24b2) of one of the shells (24a, 24b) in order to support the casing and axially immobilize same with respect to the tool, and second members configured to cooperate with a second annular flange (24b1) of the other of the shells (24b, 24a) in order to rotatably guide and/or block the casing about said axis,
Optoelectronic semiconductor component with - a carrier with a carrier top, - at least one optoelectronic semiconductor chip mounted on the carrier top and having a radiation-transmissive substrate and a semiconductor layer sequence which comprises at least one active layer for generating electromagnetic radiation, - a conversion medium applied directly as a layer or indirectly as a plate via a connecting means on a main radiation side, remote from the carrier, of the semiconductor chip for at least partially converting the radiation emitted by the semiconductor chip into a radiation of another wavelength, and - a reflective potting material, which surrounds the semiconductor chip directly and form-fittingly in a lateral direction, characterized in that the conversion medium is located between the potting material and the main radiation side, such that both the semiconductor chip and the conversion medium are completely covered by the potting material. - a carrier with a carrier top, - at least one optoelectronic semiconductor chip mounted on the carrier top and having a radiation-transmissive substrate and a semiconductor layer sequence which comprises at least one active layer for generating electromagnetic radiation, - a conversion medium applied directly as a layer or indirectly as a plate via a connecting means on a main radiation side, remote from the carrier, of the semiconductor chip for at least partially converting the radiation emitted by the semiconductor chip into a radiation of another wavelength, and - a reflective potting material, which surrounds the semiconductor chip directly and form-fittingly in a lateral direction, characterized in that the conversion medium is located between the potting material and the main radiation side, such that both the semiconductor chip and the conversion medium are completely covered by the potting material.
A plug (400A, 400B, 400C) for a miniaturized connector for use in an audio device, a hearing device or a similar device, wherein the plug comprises: - a plug housing consisting of a first plug housing (402,412) and a second plug housing (404, 414), both parts being made in a non-conducting material and forming a plug housing cavity in an assembled state wherein a plug housing groove (408,418) is found; - a first male plug part made in conducting material and positioned partly inside the plug housing cavity, the first male plug part having a recess at one end, the recess being adapted to secure the plug (400A, 400B, 400C) inside a corresponding receptacle, - a first female plug part made in a conducting material and situated inside the first male plug part, and - a first insulator made in a non-conducting material and placed between the first female plug part and the first male plug part thereby preventing electrical contact between the two plug parts, characterized in that the first male plug part further comprises a collar at an other end, the collar being adapted for fitting into the plug housing groove (408,418). - a plug housing consisting of a first plug housing (402,412) and a second plug housing (404, 414), both parts being made in a non-conducting material and forming a plug housing cavity in an assembled state wherein a plug housing groove (408,418) is found; - a first male plug part made in conducting material and positioned partly inside the plug housing cavity, the first male plug part having a recess at one end, the recess being adapted to secure the plug (400A, 400B, 400C) inside a corresponding receptacle, - a first female plug part made in a conducting material and situated inside the first male plug part, and - a first insulator made in a non-conducting material and placed between the first female plug part and the first male plug part thereby preventing electrical contact between the two plug parts,
A vacuum pump, in particular a turbomolecular pump, having a rotor and having a rotary bearing, which is to be supplied with an operating medium, for the rotatable support of the rotor, with the rotor having a conveying section, in particular a conical conveying section, for conveying the operating medium to the rotary bearing, wherein a conveying pump is provided for conveying the operating medium, characterized in that at least one wick is provided which is in contact with the conveying section to transfer the operating medium provided by the conveying pump to the conveying section, wherein an outlet is provided for the operating medium and can be supplied with the operating medium by the conveying pump, with the wick being arranged such that the wick closes the outlet.
An inhaler article comprising: a body extending along a longitudinal axis from a mouthpiece end to a distal end; an endpiece element at the distal end; a capsule cavity having an inner surface defining a cylindrical space within the body and extending along the longitudinal axis a cavity length, the capsule cavity comprises a helical feature on or in the inner surface of the capsule cavity, the helical feature is a protrusion or channel extending along the cavity length; an air inlet region between the endpiece element and the capsule cavity, the air inlet region having an air inlet and an air passageway extending from the air inlet to the capsule cavity; a porous element defining a downstream end of the capsule cavity; a mouthpiece air channel extending from the capsule cavity, through the porous element to the mouthpiece end. a body extending along a longitudinal axis from a mouthpiece end to a distal end; an endpiece element at the distal end; a capsule cavity having an inner surface defining a cylindrical space within the body and extending along the longitudinal axis a cavity length, the capsule cavity comprises a helical feature on or in the inner surface of the capsule cavity, the helical feature is a protrusion or channel extending along the cavity length; an air inlet region between the endpiece element and the capsule cavity, the air inlet region having an air inlet and an air passageway extending from the air inlet to the capsule cavity; a porous element defining a downstream end of the capsule cavity; a mouthpiece air channel extending from the capsule cavity, through the porous element to the mouthpiece end.
An ophthalmologic apparatus comprising: tomographic image acquisition means configured to acquire a tomographic image of a subject's eye based on a combined beam obtained by combining a return beam from the subject's eye, which is irradiated with a measuring beam, and a reference beam corresponding to the measuring beam; optical path length difference changing means configured to change an optical path length difference between the measuring beam and the reference beam; and control means which is configured automatically to control the optical path length difference changing means so that the optical path length difference is within a predetermined range, characterized in that the control means is configured to automatically control the optical path length difference changing means when relative positions of an optical system for irradiating the subject's eye with the measuring beam and an anterior segment of the subject's eye are detected as satisfying a predetermined condition based on an image of the anterior segment and in that the ophthalmologic apparatus further comprises: anterior segment image acquisition means configured to acquire split images of the anterior segment, wherein, in a case where a distance between the split images of the anterior segment is within a predetermined distance, the relative positions satisfy the predetermined condition. tomographic image acquisition means configured to acquire a tomographic image of a subject's eye based on a combined beam obtained by combining a return beam from the subject's eye, which is irradiated with a measuring beam, and a reference beam corresponding to the measuring beam; optical path length difference changing means configured to change an optical path length difference between the measuring beam and the reference beam; and control means which is configured automatically to control the optical path length difference changing means so that the optical path length difference is within a predetermined range, characterized in that the control means is configured to automatically control the optical path length difference changing means when relative positions of an optical system for irradiating the subject's eye with the measuring beam and an anterior segment of the subject's eye are detected as satisfying a predetermined condition based on an image of the anterior segment and in that the ophthalmologic apparatus further comprises: anterior segment image acquisition means configured to acquire split images of the anterior segment, wherein, in a case where a distance between the split images of the anterior segment is within a predetermined distance, the relative positions satisfy the predetermined condition. anterior segment image acquisition means configured to acquire split images of the anterior segment, wherein, in a case where a distance between the split images of the anterior segment is within a predetermined distance, the relative positions satisfy the predetermined condition.
A data-receiving device for short-range wireless communication, configured to: transmit through a network a link-setup request to a data-transmitting device, the link-setup request transmitted by the data-receiver device at a lower-than-nominal power; receive through the network and from the data-transmitting device, a link-setup response indicating a current transmit power of the data-transmitting device, the link-setup response having been received at a received power; determine based on the received power of the link-setup response, a desired data-signal transmit power for the data-transmitting device; and transmit through the network, the desired data-signal transmit power to the data-transmitting device. transmit through a network a link-setup request to a data-transmitting device, the link-setup request transmitted by the data-receiver device at a lower-than-nominal power; receive through the network and from the data-transmitting device, a link-setup response indicating a current transmit power of the data-transmitting device, the link-setup response having been received at a received power; determine based on the received power of the link-setup response, a desired data-signal transmit power for the data-transmitting device; and transmit through the network, the desired data-signal transmit power to the data-transmitting device.
A method for determining resources, comprising: receiving, by a user equipment, UE, a first message by using Radio Resource Control, RRC, signaling over a first cell, wherein the first message over the first cell is used for determining at least one first bandwidth part, BWP, in a second cell, the at least one first BWP being smaller than or equal to a bandwidth of the second cell; wherein N second BWPs are indicated by the first message, N is an integer greater than 1, each of the N second BWPs is smaller than or equal to the bandwidth of the second cell, and wherein the method further comprises: receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE. receiving, by a user equipment, UE, a first message by using Radio Resource Control, RRC, signaling over a first cell, wherein the first message over the first cell is used for determining at least one first bandwidth part, BWP, in a second cell, the at least one first BWP being smaller than or equal to a bandwidth of the second cell; wherein N second BWPs are indicated by the first message, N is an integer greater than 1, each of the N second BWPs is smaller than or equal to the bandwidth of the second cell, and wherein the method further comprises: receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE. receiving, by the UE, a second message over the first cell, wherein the second message indicates the at least one first BWP among the N second BWPs; receiving, by the UE, a third message by using downlink control information, DCI, over the first cell, wherein the third message is used to indicate one or more transmission resources for the UE within the at least one first BWP of the second cell; wherein the second message is conveyed by downlink control information, DCI, or a media access control, MAC, control element, CE.
An electric motor actuator (100;300) comprising: an electric motor actuator housing (110;290); a ball nut (125;225) coupled to the electric motor actuator housing (110;290); a ball screw (120;220) in communication with the ball nut (125;225) via a race; and an actuator drive unit housing (130;210) coupled to the ball screw (120;220) to form a thrust bearing (140;240), wherein the actuator drive unit housing (110;290) comprises an integrally formed ring gear, an integrally formed thrust bearing (140;240), and characterised by comprising an integrally formed load cell, wherein the integrally formed load cell comprises a plurality of columns defined by openings between adjacent columns. an electric motor actuator housing (110;290); a ball nut (125;225) coupled to the electric motor actuator housing (110;290); a ball screw (120;220) in communication with the ball nut (125;225) via a race; and an actuator drive unit housing (130;210) coupled to the ball screw (120;220) to form a thrust bearing (140;240), wherein the actuator drive unit housing (110;290) comprises an integrally formed ring gear, an integrally formed thrust bearing (140;240), and characterised by comprising an integrally formed load cell, wherein the integrally formed load cell comprises a plurality of columns defined by openings between adjacent columns.