mhurhangee/patent-ind-claim-en huggingface dataset:
A vane assembly for a gas turbine engine comprising: an inner diameter platform ; an outer diameter platform ; an airfoil shaped vane spanning from the inner diameter platform to the outer diameter platform , the airfoil shaped vane including an internal cooling passage having a first inlet at said inner diameter platform and a second inlet at said outer diameter platform ; and an outer diameter platform cover disposed radially outward of the outer diameter platform , relative to a radius of an arc defined by an arc of the outer diameter platform , the outer diameter platform cover including at least one coolant cover inlet hole , the at least one coolant cover inlet hole being aligned with a corresponding second inlet; characterised in that : a cross sectional shape of the second inlet and a cross sectional shape of the at least one coolant cover inlet hole is the same. an inner diameter platform ; an outer diameter platform ; an airfoil shaped vane spanning from the inner diameter platform to the outer diameter platform , the airfoil shaped vane including an internal cooling passage having a first inlet at said inner diameter platform and a second inlet at said outer diameter platform ; and an outer diameter platform cover disposed radially outward of the outer diameter platform , relative to a radius of an arc defined by an arc of the outer diameter platform , the outer diameter platform cover including at least one coolant cover inlet hole , the at least one coolant cover inlet hole being aligned with a corresponding second inlet; characterised in that : a cross sectional shape of the second inlet and a cross sectional shape of the at least one coolant cover inlet hole is the same.
A Hall thruster power supply device comprising: - a spread circuit to output a spread signal obtained by performing spread spectrum on a pulse signal based on a control signal; and - a voltage output circuit to output an output voltage to a Hall thruster in accordance with the spread signal output by the spread circuit. - a spread circuit to output a spread signal obtained by performing spread spectrum on a pulse signal based on a control signal; and - a voltage output circuit to output an output voltage to a Hall thruster in accordance with the spread signal output by the spread circuit.
A system comprising: an additive manufacturing assembly ; a user interface configured to receive one or more inputs indicative of a user-specific prosthesis attribute; and a computing arrangement , operatively coupled to the additive manufacturing assembly , including circuitry , and the user interface configured to operate the additive manufacturing assembly to manufacture an eyelash prosthesis configured to physically couple with and conform to a portion of the body including an eyelid based on one or more inputs indicative of physical attributes of the portion of the body including the eyelid, and the one or more inputs indicative of the user-specific prosthesis attribute. an additive manufacturing assembly ; a user interface configured to receive one or more inputs indicative of a user-specific prosthesis attribute; and a computing arrangement , operatively coupled to the additive manufacturing assembly , including circuitry , and the user interface configured to operate the additive manufacturing assembly to manufacture an eyelash prosthesis configured to physically couple with and conform to a portion of the body including an eyelid based on one or more inputs indicative of physical attributes of the portion of the body including the eyelid, and the one or more inputs indicative of the user-specific prosthesis attribute. operate the additive manufacturing assembly to manufacture an eyelash prosthesis configured to physically couple with and conform to a portion of the body including an eyelid based on one or more inputs indicative of physical attributes of the portion of the body including the eyelid, and the one or more inputs indicative of the user-specific prosthesis attribute.
A prosthetic heart valve (400B; 400C; 600; 700B), comprising: a collapsible and expandable stent (102; 410B; 410C; 550; 610; 710B) having an inflow end (130; 430B; 430C; 530) at a proximal end , an outflow end (132; 432B) at a distal end , an annulus section adjacent the proximal end and an aortic section adjacent the distal end , the stent including a plurality of struts (160; 412B; 412C; 552a, 552b) forming a plurality of cells disposed in rows: a cuff (420B; 420C; 500; 620; 720B) coupled to the stent so that a flat bottom edge of the cuff lies adjacent the proximal end of the stent, the cuff covering all or part of either or both of the luminal and abluminal surfaces of the annulus section of the stent; and characterized by : the stent further comprising a series of horseshoe-shaped portions , wherein each horseshoe-shaped portion is formed by two of the plurality of struts joining at the inflow end; and a pattern of stitches (P) circumferentially disposed around the flat bottom edge of the cuff, the pattern of stitches alternating between stitches (L2) sewn to the cuff only and stitches (L1) sewn to both the cuff and the stent, wherein the stitches sewn to both the cuff and the stent (L1) are each a horseshoe locking stitch anchored at each horseshoe-shaped portion . a collapsible and expandable stent (102; 410B; 410C; 550; 610; 710B) having an inflow end (130; 430B; 430C; 530) at a proximal end , an outflow end (132; 432B) at a distal end , an annulus section adjacent the proximal end and an aortic section adjacent the distal end , the stent including a plurality of struts (160; 412B; 412C; 552a, 552b) forming a plurality of cells disposed in rows: a cuff (420B; 420C; 500; 620; 720B) coupled to the stent so that a flat bottom edge of the cuff lies adjacent the proximal end of the stent, the cuff covering all or part of either or both of the luminal and abluminal surfaces of the annulus section of the stent; and characterized by : the stent further comprising a series of horseshoe-shaped portions , wherein each horseshoe-shaped portion is formed by two of the plurality of struts joining at the inflow end; and a pattern of stitches (P) circumferentially disposed around the flat bottom edge of the cuff, the pattern of stitches alternating between stitches (L2) sewn to the cuff only and stitches (L1) sewn to both the cuff and the stent, wherein the stitches sewn to both the cuff and the stent (L1) are each a horseshoe locking stitch anchored at each horseshoe-shaped portion .
A locking system for windows and doors for retrofit comprising an attachment for the existing rolling, locking or mushroom head pin and a closing piece for exchanging for the existing one, wherein - the attachment is cuboid in shape, has a blind hole on its lower side aligned to the window or door leaf frame the diameter and depth of which are designed such that it can accommodate the existing rolling, locking or mushroom head pin, and on the narrow side which is aligned to the direction of movement of the pin a tongue distal to the blind hole opening aligned in an angle of 90° with respect to the blind hole , and at least one fastening means for the fastening of the attachment on the existing rolling, locking or mushroom head pin is provided, and - the closing piece comprises at least one fastening element and a receiving pocket which is open on both sides in the axis of movement of the attachment for the tongue of the attachment with a two-, three- or four-sided closed cross-section, wherein at least the side facing away from the window or door frame in the installed position and the side of the receiving pocket facing into the direction of opening of the window / the door are closed and the free depth of the receiving pocket is at least large enough on both sides each that the receiving pocket can completely accommodate the tongue of the attachment on both sides. - the attachment is cuboid in shape, has a blind hole on its lower side aligned to the window or door leaf frame the diameter and depth of which are designed such that it can accommodate the existing rolling, locking or mushroom head pin, and on the narrow side which is aligned to the direction of movement of the pin a tongue distal to the blind hole opening aligned in an angle of 90° with respect to the blind hole , and at least one fastening means for the fastening of the attachment on the existing rolling, locking or mushroom head pin is provided, and - the closing piece comprises at least one fastening element and a receiving pocket which is open on both sides in the axis of movement of the attachment for the tongue of the attachment with a two-, three- or four-sided closed cross-section, wherein at least the side facing away from the window or door frame in the installed position and the side of the receiving pocket facing into the direction of opening of the window / the door are closed and the free depth of the receiving pocket is at least large enough on both sides each that the receiving pocket can completely accommodate the tongue of the attachment on both sides.
A beamlet aperture array for forming a plurality of beamlets from one or more charged particle sub-beams (22; 510), the beamlet aperture array comprising a plurality of beamlet apertures arranged in one or more groups, each group corresponding to one charged particle sub-beam (22; 510), characterised by the positions of the beamlet apertures within each group form an unbalanced and shifted array, the array being unbalanced in that at least one row and/or column of the array has a different number of beamlet apertures than another row or column of the array, and the array being shifted in that at least one column of the array is shifted in relation to the other columns of the array.
A tray sealing machine comprising at least one feed unit for conveying trays (T) in a production direction (P), a sealing station arranged downstream of the feed unit , when seen in the production direction (P), and used for producing packages (V), at least one discharge unit arranged downstream of the sealing station , when seen in the production direction (P), as well as a gripper unit configured to, in a conveying cycle, pick up trays (T) provided on the feed unit and convey them into the sealing station for a tray sealing process (S) taking place in the sealing station as well as pick up packages (V) produced within the sealing station and convey them to the discharge unit , wherein the sealing station comprises a tool upper part , which includes a sealing tool , as well as a tool lower part , which includes a support plate unit for depositing thereon the trays (T) conveyed into the sealing station and a vertically adjustable tray holder for picking up and conveying the trays (T) transferred to the support plate unit towards the tool upper part , the tray sealing machine additionally comprising a lifting mechanism configured to move the tray holder from a first position (P1), at which the tray holder occupies a starting position in an open state of the sealing station , to a second position (P2), at which the tray holder occupies a working position located closer to the tool upper part in a closed state of the sealing station , during a first predetermined motion sequence (A1), the tray holder being adapted to be moved during the first motion sequence (A1) by means of the lifting mechanism in such a way that the tray holder will pick up the trays (T), which are provided on the support plate unit , at a predetermined pick-up speed (v1), characterized in that the tray sealing machine is configured such that a rate of speed change (G) over time of the tray holder will have changed from a positive value to a negative value during the first motion sequence (A1) before the tray holder has reached the predetermined pick-up speed (v1), and/or that the tray holder is adapted to be moved, by means of the lifting mechanism , from the second position (P2) back to the first position (P1) along a second predetermined motion sequence (A2), which is provided for opening the sealing station , in such a way that the tray holder will transfer the produced packages (V) accommodated therein to the support plate unit at a predetermined depositing speed (v4), with a rate of speed change (G) over time of the tray holder having changed from a negative value to a positive value during the second motion sequence (A2) before the tray holder has reached the predetermined depositing speed (v4).
A rail system comprising: a track ; a plurality of leveling members disposed below the track ; and a plurality of adjustment mechanisms disposed between the track and the plurality of leveling members , each of the adjustment mechanisms coupled to the track and one of the leveling members , wherein the adjustment mechanisms are configured to adjust a distance between the track and the respective leveling member ; characterized in that each of the plurality of adjustment mechanisms further includes a second adjustment mechanism having a first link coupled to the track and a second link coupled to both the first link and to the respective one of the plurality of leveling members . a track ; a plurality of leveling members disposed below the track ; and a plurality of adjustment mechanisms disposed between the track and the plurality of leveling members , each of the adjustment mechanisms coupled to the track and one of the leveling members , wherein the adjustment mechanisms are configured to adjust a distance between the track and the respective leveling member ; characterized in that each of the plurality of adjustment mechanisms further includes a second adjustment mechanism having a first link coupled to the track and a second link coupled to both the first link and to the respective one of the plurality of leveling members .
A system for providing inerting gas to a protected space, comprising: a protected space, comprising a fuel tank ullage space, a cargo hold or an equipment bay an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a power source arranged to provide a voltage differential between the anode and the cathode; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode , between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; a process water fluid flow path in operative fluid communication with the anode fluid flow path inlet and the anode fluid flow path outlet; and a membrane including a first side in operative fluid communication with the process water fluid flow path and a second side in operative fluid communication with a first gas outlet. a protected space, comprising a fuel tank ullage space, a cargo hold or an equipment bay an electrochemical cell comprising a cathode and an anode separated by a separator comprising a proton transfer medium; a power source arranged to provide a voltage differential between the anode and the cathode; a cathode fluid flow path in operative fluid communication with the cathode between a cathode fluid flow path inlet and a cathode fluid flow path outlet; an anode fluid flow path in operative fluid communication with the anode , between an anode fluid flow path inlet and an anode fluid flow path outlet; a cathode supply fluid flow path between an air source and the cathode fluid flow path inlet, and an inerting gas flow path in operative fluid communication with the cathode fluid flow path outlet and the protected space; an anode supply fluid flow path between a process water source and the anode fluid flow path inlet; a process water fluid flow path in operative fluid communication with the anode fluid flow path inlet and the anode fluid flow path outlet; and a membrane including a first side in operative fluid communication with the process water fluid flow path and a second side in operative fluid communication with a first gas outlet.
A hollow fiber cryopreservation instrument comprising a long support configured such that a hollow fiber can be placed on the long support, wherein the hollow fiber is configured such that cells can be included in an internal space of the hollow fiber, and the hollow fiber is formed of a membrane molded in a straw shape, the membrane having a plurality of holes having diameters that do not allow the passage of the cells but allow the passage of water, an electrolyte and a protein, wherein the support is formed of a low-temperature-resistant material, wherein the support has a bottom part on which the hollow fiber can be placed, and sidewall parts that rise from the bottom part in a longitudinal direction of the support, wherein through-holes (H) are formed in the bottom part of the support, the through-holes passing through a side on which the hollow fiber is to be placed and a side opposite to the side on which the hollow fiber is to be placed, and wherein through-holes are not formed at opposite end sides of the bottom part of the support in the longitudinal direction of the support.
A production method for a fiber-reinforced thermoplastic resin composite material, the method comprising: supplying a reinforcing fiber to a crosshead die having a maximum opening outlet height of 1 mm or more in a reinforcing fiber bundle state, compositing the reinforcing fiber with a thermoplastic resin in a molten state, subsequently bringing the composite material into contact with a pressurization surface at a temperature equal to or lower than the solidification temperature of the thermoplastic resin, wherein the solidification temperature of the thermoplastic resin is determined according to the description, and shaping the composite material through pressurization to have a thickness to be 50% or less of the maximum outlet opening height. supplying a reinforcing fiber to a crosshead die having a maximum opening outlet height of 1 mm or more in a reinforcing fiber bundle state, compositing the reinforcing fiber with a thermoplastic resin in a molten state, subsequently bringing the composite material into contact with a pressurization surface at a temperature equal to or lower than the solidification temperature of the thermoplastic resin, wherein the solidification temperature of the thermoplastic resin is determined according to the description, and shaping the composite material through pressurization to have a thickness to be 50% or less of the maximum outlet opening height.
A method for hot forming a flat laminate piece made from a thermoplastic synthetic material into a 3-D molded part or for coating a 3-D support member, wherein the flat laminate piece is laid down with an edge zone thereof on a frame of a frame-shaped pallet and is heated to a predetermined temperature, and pressurizing a forming area of the warm laminate piece present within said edge zone of the warm laminate piece with a fluid pressure medium, especially compressed air, under a pressure medium pressure of from 20 bar to 300 bar, and isostatically deforming said forming area within a period less than 5 seconds to the 3-D molded part or laminating said forming area to the 3-D support member, which step is here shortly termed as isostatic high pressure forming, characterized in that the flat laminate piece is arranged with its edge zone in such a manner on said frame , that parts of the edge zone of the warm flat laminate piece may glide on the frame in a first laminate direction (R); and initially, two solid, identical or substantially identical, non-planar contours (67' and 67") arranged at a spring-loaded frame or at a tension frame or at a support surface of two parallel, spaced and mutual oppositely disposed side walls (64' and 64") of a frame-shaped structure supported and fastened on the tension frame or on the spring-loaded frame acting on two parallel, spaced and mutual oppositely arranged laminate piece edge portions (7' and 7") in an uniaxial manner and perpendicular to a laminate piece plane, and deforming the entire warm, flat laminate piece only in said first laminate direction (R), that is monodirectionally, to a warm monodirectionally deformed preform (W); and then, subsequently, performing the isostatic high pressure forming on/with said warm, monodirectionally deformed preform (W).
A component for a vapour provision system , comprising: a reservoir for storing aerosolisable substrate material , the reservoir bounded by a boundary wall with at least one movable section configured to move to reduce a storage volume of the reservoir; an outlet in the reservoir for dispensing aerosolisable substrate material from the reservoir; a one-way outlet valve at the outlet configured to open for the dispensing of the aerosolisable substrate material; and a dispensing arrangement operable to increase pressure of aerosolisable substrate material in an outlet volume of the reservoir which is not bounded by the movable section, so as to open the outlet valve and dispense a portion of aerosolisable substrate material, the subsequent absence of the dispensed portion reducing the pressure to allow the movable section of the boundary wall to move to reduce the storage volume. a reservoir for storing aerosolisable substrate material , the reservoir bounded by a boundary wall with at least one movable section configured to move to reduce a storage volume of the reservoir; an outlet in the reservoir for dispensing aerosolisable substrate material from the reservoir; a one-way outlet valve at the outlet configured to open for the dispensing of the aerosolisable substrate material; and a dispensing arrangement operable to increase pressure of aerosolisable substrate material in an outlet volume of the reservoir which is not bounded by the movable section, so as to open the outlet valve and dispense a portion of aerosolisable substrate material, the subsequent absence of the dispensed portion reducing the pressure to allow the movable section of the boundary wall to move to reduce the storage volume.