mhurhangee/patent-ind-claim-en huggingface dataset:
A luminaire, comprising a shade , a mounting base , a first end cap , a second end cap , a light source module and a drive power source, wherein the shade has two first folded edges opposite to each other, and the mounting base has two second folded edges opposite to each other; the first folded edges are in snap-fit with the second folded edges ; the first end cap and the second end cap are respectively connected to two ends of the mounting base ; the shade , the mounting base , the first end cap and the second end cap form an accommodating cavity, and the light source module and the drive power source are disposed in the accommodating cavity; characterized in that the luminaire further comprises a shade pushing assembly , and the shade pushing assembly comprises a force-exerting key and a pushing piece ; the force-exerting key is in sliding fit with a sidewall of the mounting base , and the pushing piece is located in the accommodating cavity; one end of the force-exerting key is connected to the pushing piece , and the other end of the force-exerting key extends out of the mounting base ; the pushing piece abuts against a first end face of at least one of the first folded edges , and the first end face is an end face on a side, which is facing the first end cap , of the first folded edge ; a movement of the force-exerting key causes the pushing piece to move for driving the shade to slide relative to the mounting base and away from the first end cap . wherein the shade has two first folded edges opposite to each other, and the mounting base has two second folded edges opposite to each other; the first folded edges are in snap-fit with the second folded edges ; the first end cap and the second end cap are respectively connected to two ends of the mounting base ; the shade , the mounting base , the first end cap and the second end cap form an accommodating cavity, and the light source module and the drive power source are disposed in the accommodating cavity; characterized in that the luminaire further comprises a shade pushing assembly , and the shade pushing assembly comprises a force-exerting key and a pushing piece ; the force-exerting key is in sliding fit with a sidewall of the mounting base , and the pushing piece is located in the accommodating cavity; one end of the force-exerting key is connected to the pushing piece , and the other end of the force-exerting key extends out of the mounting base ; the pushing piece abuts against a first end face of at least one of the first folded edges , and the first end face is an end face on a side, which is facing the first end cap , of the first folded edge ; a movement of the force-exerting key causes the pushing piece to move for driving the shade to slide relative to the mounting base and away from the first end cap .
An orthodontic appliance comprising a base having a bonding surface ; a body extending outwardly from the base , the body including a mesial-distally extending archwire slot having a bottom wall and a channel oriented generally perpendicular to the wire slot ; and a door slidably coupled to the body , the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot , wherein the door includes a strut extending from a lingual surface , wherein the strut is slidably received in the channel , and wherein the strut includes a first rail, the first rail having a first mesial-distal rail height h 1 of 0.0254 mm to 0.200 mm, the first rail extending along a mesial or a distal side of the strut , and wherein the channel includes a first concave recess , and wherein the first rail is slidably engaged in the first concave recess . a base having a bonding surface ; a body extending outwardly from the base , the body including a mesial-distally extending archwire slot having a bottom wall and a channel oriented generally perpendicular to the wire slot ; and a door slidably coupled to the body , the door moveable between an open state in which an archwire can be ligated in the archwire slot and a closed state in which an archwire can be retained in the archwire slot , wherein the door includes a strut extending from a lingual surface , wherein the strut is slidably received in the channel , and wherein the strut includes a first rail, the first rail having a first mesial-distal rail height h 1 of 0.0254 mm to 0.200 mm, the first rail extending along a mesial or a distal side of the strut , and wherein the channel includes a first concave recess , and wherein the first rail is slidably engaged in the first concave recess .
Chipcard comprising - a card body formed by at least one dielectric layer and one metal layer superposed on the dielectric layer, - the metal layer comprising a cavity passing through its thickness and having an outline , the metal layer further comprising a slit passing through its thickness and extending from the cavity to an edge of the card body, - the card further comprising an antenna extending in a plane of the cavity of the metal layer , characterized in that the card further comprises at least one metal label at least partially covering the cavity and the antenna , the label being fixed onto one of the faces of the card, the metal label comprising a metal layer , the metal layer comprising a pattern represented by etched metal lines, the pattern of the label comprising a first part formed by first etched metal lines delimiting at least one zone that is at least partially of metal, and a second part composed of second etched metal lines forming only open loops, each second line of the second part of the pattern prolongs a first line of the first part of the pattern , such that the second part of the pattern forms the continuity of the first part of the pattern to form the pattern in its entirety, and in that the metal label is positioned such that only the second part of the pattern is disposed opposite the antenna . - a card body formed by at least one dielectric layer and one metal layer superposed on the dielectric layer, - the metal layer comprising a cavity passing through its thickness and having an outline , the metal layer further comprising a slit passing through its thickness and extending from the cavity to an edge of the card body, - the card further comprising an antenna extending in a plane of the cavity of the metal layer , the metal label comprising a metal layer , the metal layer comprising a pattern represented by etched metal lines, the pattern of the label comprising a first part formed by first etched metal lines delimiting at least one zone that is at least partially of metal, and a second part composed of second etched metal lines forming only open loops, each second line of the second part of the pattern prolongs a first line of the first part of the pattern , such that the second part of the pattern forms the continuity of the first part of the pattern to form the pattern in its entirety, and in that the metal label is positioned such that only the second part of the pattern is disposed opposite the antenna .
A conduit comprising: (i) an annular wall composed of a polymeric material, the annular wall defining an annular passageway; (ii) a plurality of channels extending along a length (L) of an inner surface of the annular wall ; and (iii) a slip material located in the channels , the slip material forming a plurality of capillary structures, with each capillary structure in a channel of the plurality of channels , and the capillary structures protruding radially inward from the annular wall such that each capillary structure has a portion that extends inward beyond the inner surface of the annular wall , wherein the annular wall and the slip material are co-extruded, wherein each capillary structure has a volume, and from 25% to 50% of the volume of each capillary structure protrudes radially inward from the annular wall . (i) an annular wall composed of a polymeric material, the annular wall defining an annular passageway; (ii) a plurality of channels extending along a length (L) of an inner surface of the annular wall ; and (iii) a slip material located in the channels , the slip material forming a plurality of capillary structures, with each capillary structure in a channel of the plurality of channels , and the capillary structures protruding radially inward from the annular wall such that each capillary structure has a portion that extends inward beyond the inner surface of the annular wall , wherein the annular wall and the slip material are co-extruded, wherein each capillary structure has a volume, and from 25% to 50% of the volume of each capillary structure protrudes radially inward from the annular wall .
An apparatus comprising an acoustic device comprising a waveguide , the waveguide comprising a trunk section and branch sections , said trunk section having a first open end forming a sound opening of the waveguide and a second end connecting the branch sections , each branch section extending from said second end of the trunk section to a respective terminal end having a respective acoustic driver , the acoustic drivers being configured to face a listening area ; the acoustic drivers and said sound opening of the waveguide facing in substantially different directions, and an audio source connected to the acoustic drivers, and a housing supporting the acoustic device, the audio source, and the acoustic drivers , as an integrated audio system, the housing having an aperture characterised in that said aperture comprises two or more openings , the sound opening of the acoustic device being separated by a space from the aperture of the housing and oriented with respect to the aperture so that sound radiated from the sound opening passes through the aperture , and in which the space is at least large enough to substantially reduce distortion caused by the aperture of the housing in sound radiated from the acoustic device. an acoustic device comprising a waveguide , the waveguide comprising a trunk section and branch sections , said trunk section having a first open end forming a sound opening of the waveguide and a second end connecting the branch sections , each branch section extending from said second end of the trunk section to a respective terminal end having a respective acoustic driver , the acoustic drivers being configured to face a listening area ; the acoustic drivers and said sound opening of the waveguide facing in substantially different directions, and an audio source connected to the acoustic drivers, and a housing supporting the acoustic device, the audio source, and the acoustic drivers , as an integrated audio system, the housing having an aperture characterised in that said aperture comprises two or more openings , the sound opening of the acoustic device being separated by a space from the aperture of the housing and oriented with respect to the aperture so that sound radiated from the sound opening passes through the aperture , and in which the space is at least large enough to substantially reduce distortion caused by the aperture of the housing in sound radiated from the acoustic device.
An electronic device comprising: a display layer (DPL); a sensor layer (ISL) disposed on the display layer; and a lower member (LM) disposed under the display layer, the lower member including a first shielding layer (MPL), wherein the sensor layer (ISL) is configured to operate in a first touch mode for sensing a first input based on a capacitance change or in a second touch mode for sensing a second input, the second input being outputable from an input device that is configured to emit a magnetic field, and wherein the first shielding layer (MPL) is configured to shield a magnetic field that is emittable from the input device and is transmitted through the sensor layer (ISL), wherein the lower member (LM) further includes a second shielding layer (ESL) spaced apart from the sensor layer (ISL) with the first shielding layer (MPL) interposed therebetween, the second shielding layer (ESL) is configured to shield an electromagnetic field from a module disposed under the sensor layer (ISL). a display layer (DPL); a sensor layer (ISL) disposed on the display layer; and a lower member (LM) disposed under the display layer, the lower member including a first shielding layer (MPL), wherein the sensor layer (ISL) is configured to operate in a first touch mode for sensing a first input based on a capacitance change or in a second touch mode for sensing a second input, the second input being outputable from an input device that is configured to emit a magnetic field, and wherein the first shielding layer (MPL) is configured to shield a magnetic field that is emittable from the input device and is transmitted through the sensor layer (ISL), wherein the lower member (LM) further includes a second shielding layer (ESL) spaced apart from the sensor layer (ISL) with the first shielding layer (MPL) interposed therebetween, the second shielding layer (ESL) is configured to shield an electromagnetic field from a module disposed under the sensor layer (ISL).
Space aircraft , having a fuselage and two wings arranged on either side of said fuselage , said wings being arranged such that their respective leading edges are situated at a position called first longitudinal position (P2) along a longitudinal axis (X-X) of said fuselage , the space aircraft also comprising two nacelles arranged at the ends of the wings , these nacelles each bearing a horizontal empennage and a vertical empennage , said fuselage has a transverse section of variable size along the longitudinal axis (X-X) of said fuselage , such that, from the front towards the rear of the space aircraft , along the longitudinal axis (X-X), the size of the transverse section of the fuselage increases as far as a maximum transverse section (C1) and then decreases, the maximum transverse section (C1) is at a position called second longitudinal position (P1) along said longitudinal axis (X-X), this second longitudinal position (P1) being situated in front of said first longitudinal position (P2).
A method of manufacturing a cartridge suitable for use with an aerosol-generating system , the method comprising the steps of: providing a liquid storage portion , providing an electrical component having a pre-defined resistance, forming the electrical component into an electrical inductor having a particular inductance, mounting the electrical inductor to the cartridge , providing an electrical heating element, mounting the electrical heating element to the cartridge, and connecting the electrical inductor in series to the electrical heating element, wherein the inductance of the electrical inductor is indicative of an aerosol-forming substrate comprised or to be filled in the liquid storage portion . providing a liquid storage portion , providing an electrical component having a pre-defined resistance, forming the electrical component into an electrical inductor having a particular inductance, mounting the electrical inductor to the cartridge , providing an electrical heating element, mounting the electrical heating element to the cartridge, and connecting the electrical inductor in series to the electrical heating element,
A screw pegging system, comprises: a holding handle , a handle rod , a sleeve and a screw, wherein:the sleeve comprises a through cavity , a third clamping groove and a fourth clamping groove , wherein the third clamping groove and the forth clamping groove are arranged inside opposite ends of the through cavity respectively; a groove opening through the through cavity arranged on the side wall of the sleeve , a limiting clamping part extending parallel to the side wall surface within the groove opening , wherein one end of the limiting clamping part is connected with the side wall of the groove opening , and wherein the other end of the limiting clamping part comprises a convex clamping edge extending within the groove opening ; wherein the screw comprises a cylindrical long rod , a screw head arranged on one end of the long rod , a first snap-fit portion arranged between the long rod and the screw head , and an annular slot edge arranged on the side wall of the long rod ; wherein one end of the handle rod is connected to the holding handle , and the other end of the handle rod is inserted into the third clamping groove of the sleeve , wherein an axial insertion hole is arranged on the end of the handle rod that is connected to the sleeve , and wherein the axial insertion hole is connected with the through cavity of the sleeve ; wherein the long rod passes through the through cavity and is inserted in the insertion hole , wherein the first snap-fit portion is snap-fitted in to the fourth clamping groove , and wherein the convex clamping edge is embedded in the annular slot edge .
Seal assembly for an industrial transmission , comprising a vertically aligned lower power shaft for exchanging torque with the industrial transmission , a transmission component of the industrial transmission , said transmission component being provided radially outside the power shaft , wherein the power shaft comprises an intended greater rotational speed than the transmission component during operation, wherein a contactless first seal is provided between the transmission component and the power shaft , wherein the first seal comprises a conical first sealing gap which is bevelled in the direction of gravity and runs from radially on the outside to radially on the inside counter to the direction of gravity , and a first overflow channel running downwards to at least a large extent in the direction of gravity , wherein the first sealing gap communicates with the first overflow channel , wherein the first overflow channel ends below the first sealing gap in the direction of gravity and is in the form of an annular gap, characterized in that the overflow channel comprises a substantially constant flow cross section and consists of a single gap seal, for the purpose of avoiding a labyrinth seal. a vertically aligned lower power shaft for exchanging torque with the industrial transmission , a transmission component of the industrial transmission , said transmission component being provided radially outside the power shaft , wherein the power shaft comprises an intended greater rotational speed than the transmission component during operation, wherein a contactless first seal is provided between the transmission component and the power shaft , wherein the first seal comprises a conical first sealing gap which is bevelled in the direction of gravity and runs from radially on the outside to radially on the inside counter to the direction of gravity , and a first overflow channel running downwards to at least a large extent in the direction of gravity , wherein the first sealing gap communicates with the first overflow channel , wherein the first overflow channel ends below the first sealing gap in the direction of gravity and is in the form of an annular gap, characterized in that the overflow channel comprises a substantially constant flow cross section and consists of a single gap seal, for the purpose of avoiding a labyrinth seal.
An orbital tissue retractor for a surgical operation in the region of an eye socket, the orbital tissue retractor including an orbital tissue retractor body having an open proximal end and an open distal end , which is formed for abutment with the ocular globe of the eye so as to displace orbital tissue from the orbital globe, characterised in that : the orbital tissue retractor body defines a passageway for a surgical instrument between the displaced orbital tissue and the ocular globe, the orbital tissue retractor body defines a channel formation at least at a distal end region thereof which: has a C-shaped configuration when viewed in cross-sectional end view; has a curvature which conforms to the curvature of the optic nerve sheath (D) permitting the optic nerve sheath (D) to be received therein; and is configured so as to accommodate the optic nerve therein, the distal end region of the orbital tissue retractor body is dimensioned so as to receive and cradle the optic nerve sheath (D) therein. the orbital tissue retractor body defines a passageway for a surgical instrument between the displaced orbital tissue and the ocular globe, the orbital tissue retractor body defines a channel formation at least at a distal end region thereof which: has a C-shaped configuration when viewed in cross-sectional end view; has a curvature which conforms to the curvature of the optic nerve sheath (D) permitting the optic nerve sheath (D) to be received therein; and is configured so as to accommodate the optic nerve therein, has a C-shaped configuration when viewed in cross-sectional end view; has a curvature which conforms to the curvature of the optic nerve sheath (D) permitting the optic nerve sheath (D) to be received therein; and is configured so as to accommodate the optic nerve therein, the distal end region of the orbital tissue retractor body is dimensioned so as to receive and cradle the optic nerve sheath (D) therein.
A system for parasitic power generation and control of a load-handler for a lift truck, comprising: a set of load-handler actuators (132, 134, 136, 334-m) including at least a first load-handler actuator ; a set of component control valves (330-1, 330-2, 330-n, 430-1, 430-2, 430-n) including at least a first component control valve (330-1, 430-1) hydraulically coupled in series with the first load-handler actuator, the first component control valve configured to control hydraulic flow to and from the first load-handler actuator, each of the component control valves hydraulically coupled in parallel with any other of the set of component control valves; an actuator bypass valve ; a parasitic energy convertor with a hydraulic motor rotationally coupled to an electrical generator , wherein the hydraulic motor is hydraulically coupled in series with a combination of the actuator bypass valve hydraulically coupled in parallel with the set of component control valves; and a load-side control transceiver electrically coupled to and powered by the parasitic energy convertor, electrically coupled to and configured for controlling the actuator bypass valve and the set of component control valves. a set of load-handler actuators (132, 134, 136, 334-m) including at least a first load-handler actuator ; a set of component control valves (330-1, 330-2, 330-n, 430-1, 430-2, 430-n) including at least a first component control valve (330-1, 430-1) hydraulically coupled in series with the first load-handler actuator, the first component control valve configured to control hydraulic flow to and from the first load-handler actuator, each of the component control valves hydraulically coupled in parallel with any other of the set of component control valves; an actuator bypass valve ; a parasitic energy convertor with a hydraulic motor rotationally coupled to an electrical generator , wherein the hydraulic motor is hydraulically coupled in series with a combination of the actuator bypass valve hydraulically coupled in parallel with the set of component control valves; and a load-side control transceiver electrically coupled to and powered by the parasitic energy convertor, electrically coupled to and configured for controlling the actuator bypass valve and the set of component control valves.