mhurhangee/patent-ind-claim-en huggingface dataset:
A sandwich fuselage panel (212-A) comprising: an outer skin member ; an inner skin member coupled to the outer skin member at a first edge (230-A) and a second edge (230-B), wherein the outer skin member and the inner skin member form a cavity comprising: a center portion including a uniform or substantially uniform cross-sectional height, a first transition portion (224-A) extending from the center portion to the first edge, and a second transition portion (224-B) extending from the center portion to the second edge; and a cured foam adhesive occupying each of the first transition portion and the second transition portion, further comprising a core structure occupying the center portion of the cavity, wherein preferably the core structure fits the dimensions of the center portion , wherein the core structure is a honeycomb structure , wherein the cured adhesive completely fills the transition portions (224-A, 224-B) of the cavity sandwiched between the outer skin member and the inner skin member . an outer skin member ; an inner skin member coupled to the outer skin member at a first edge (230-A) and a second edge (230-B), wherein the outer skin member and the inner skin member form a cavity comprising: a center portion including a uniform or substantially uniform cross-sectional height, a first transition portion (224-A) extending from the center portion to the first edge, and a second transition portion (224-B) extending from the center portion to the second edge; and a cured foam adhesive occupying each of the first transition portion and the second transition portion, further comprising a core structure occupying the center portion of the cavity, wherein preferably the core structure fits the dimensions of the center portion , wherein the core structure is a honeycomb structure , wherein the cured adhesive completely fills the transition portions (224-A, 224-B) of the cavity sandwiched between the outer skin member and the inner skin member .
A deployment frame system for controlling relative movements of a system of multiple catheters wherein at least one catheter of the multiple catheters is configured to deliver a medical device, the deployment frame system comprising: a plurality of clamps , each of the clamps configured to releasably clamp a proximal end portion of a respective catheter of the multiple catheters; a first frame (510, 710, 910, 1110 1310, 1510, 520, 720, 1120, 1320, 1520), wherein at least one of the clamps is configured to releasably couple with the first frame; and a second frame (510, 710, 910, 1110 1310, 1510, 520, 720, 1120, 1320, 1520), wherein at least two of the clamps are configured to releasably couple with the second frame. a plurality of clamps , each of the clamps configured to releasably clamp a proximal end portion of a respective catheter of the multiple catheters; a first frame (510, 710, 910, 1110 1310, 1510, 520, 720, 1120, 1320, 1520), wherein at least one of the clamps is configured to releasably couple with the first frame; and a second frame (510, 710, 910, 1110 1310, 1510, 520, 720, 1120, 1320, 1520), wherein at least two of the clamps are configured to releasably couple with the second frame.
A device for controlling the flow of a fluid through a conduit (602; 702) from an upstream side to a downstream side (605; 705), the device comprising: a flange for attaching the device to the conduit; a housing (606; 706) provided as a separate structure within the conduit (602; 702), wherein the housing is mounted to the flange; a valve having a valve member arranged to move reciprocally selectively to open and close one or more valve apertures formed through a wall of the housing (606; 706), thereby controlling flow of the fluid from the upstream side to the downstream side (605; 705); and means for introducing a reference pressure to act on the valve member ; wherein said valve member is acted on by the pressure of the downstream side (605; 705) and the reference pressure so as to be moved by the difference between said pressures, characterized in that the valve member is mounted on the outside of the housing (606; 706). a flange for attaching the device to the conduit; a housing (606; 706) provided as a separate structure within the conduit (602; 702), wherein the housing is mounted to the flange; a valve having a valve member arranged to move reciprocally selectively to open and close one or more valve apertures formed through a wall of the housing (606; 706), thereby controlling flow of the fluid from the upstream side to the downstream side (605; 705); and means for introducing a reference pressure to act on the valve member ; wherein said valve member is acted on by the pressure of the downstream side (605; 705) and the reference pressure so as to be moved by the difference between said pressures, characterized in that the valve member is mounted on the outside of the housing (606; 706).
A drive point for a tubular driven pile , the drive point comprising - a series of ribs, wherein - the series of ribs comprises -- outer ribs extending from an outer circumference of the drive point towards a centre axis (C) of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis (C) of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis (C) of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis (C) towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis (C) of the drive point, wherein - a gap is arranged for receiving a distal end of the tubular driven pile , - the gap being construed between said two series of ribs, the gap being defined by said inner faces and said outer faces , and - width (W) between the outer and the inner faces decreasing from an upper end of the gap to a lower end of said gap. - a series of ribs, wherein - the series of ribs comprises -- outer ribs extending from an outer circumference of the drive point towards a centre axis (C) of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis (C) of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis (C) of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis (C) towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis (C) of the drive point, wherein -- outer ribs extending from an outer circumference of the drive point towards a centre axis (C) of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis (C) of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis (C) of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis (C) towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis (C) of the drive point, wherein - a gap is arranged for receiving a distal end of the tubular driven pile , - the gap being construed between said two series of ribs, the gap being defined by said inner faces and said outer faces , and - width (W) between the outer and the inner faces decreasing from an upper end of the gap to a lower end of said gap.
Binder particles which have a volume-average particle diameter of 10 nm or more and 50,000 nm or less and which encompass an ion-conductive substance, wherein the ion-conductive substance is selected from an inorganic solid electrolyte, a solid polymer electrolyte, a gel electrolyte and a liquid electrolyte, wherein the inorganic solid electrolyte is selected from a sulfide-based inorganic solid electrolyte and an oxide-based inorganic solid electrolyte, wherein the solid polymer electrolyte is selected from a polyethylene oxide, a polyacrylonitrile and a polycarbonate, and the solid polymer electrolyte contains at least one supporting electrolyte, wherein the gel electrolyte is selected from the electrolytes obtained by swelling polyethylene oxide, polyvinylidene fluoride, polymethyl methacrylate or polyacrylonitrile using a liquid electrolyte, wherein the liquid electrolyte is an aprotic organic solvent having 2 to 10 carbon atoms and having an ether group, a carbonyl group, an ester group or a carbonate group, wherein the ion-conductive substance is coated with a polymer having a mass ratio of 30% or more of the ion-conductive substance, wherein the polymer is selected from a fluorine-containing resin, a hydrocarbon-based thermoplastic resin, an acrylic resin, a vinyl resin, a urethane resin, polyurea, polyamide, polyimide, polyester and polyether, and wherein the volume-average particle diameter is measured in accordance with the method in the description. wherein the inorganic solid electrolyte is selected from a sulfide-based inorganic solid electrolyte and an oxide-based inorganic solid electrolyte, wherein the solid polymer electrolyte is selected from a polyethylene oxide, a polyacrylonitrile and a polycarbonate, and the solid polymer electrolyte contains at least one supporting electrolyte, wherein the gel electrolyte is selected from the electrolytes obtained by swelling polyethylene oxide, polyvinylidene fluoride, polymethyl methacrylate or polyacrylonitrile using a liquid electrolyte, wherein the liquid electrolyte is an aprotic organic solvent having 2 to 10 carbon atoms and having an ether group, a carbonyl group, an ester group or a carbonate group, wherein the ion-conductive substance is coated with a polymer having a mass ratio of 30% or more of the ion-conductive substance, wherein the polymer is selected from a fluorine-containing resin, a hydrocarbon-based thermoplastic resin, an acrylic resin, a vinyl resin, a urethane resin, polyurea, polyamide, polyimide, polyester and polyether, and wherein the volume-average particle diameter is measured in accordance with the method in the description.
A surgical device , comprising: a handle including a bore ; a trigger configured to advance or retract a needle through the bore of the handle , the trigger configured to rotate about a pivot axis and further configured to slide in distal and proximal directions, and a trigger assembly including the trigger , a trigger housing , and a pin , and wherein the trigger is configured to rotate relative to the trigger housing about the pin , the trigger assembly including a spring configured to bias the trigger away from a central axis of the bore of the handle . a handle including a bore ; a trigger configured to advance or retract a needle through the bore of the handle , the trigger configured to rotate about a pivot axis and further configured to slide in distal and proximal directions, and a trigger assembly including the trigger , a trigger housing , and a pin , and wherein the trigger is configured to rotate relative to the trigger housing about the pin , the trigger assembly including a spring configured to bias the trigger away from a central axis of the bore of the handle .
An image sensing apparatus comprising: an image sensing unit (11-13) which shoots an object image continuously in terms of time to sequentially generate a plurality of still image data; a holding unit which holds the plurality of still image data sequentially generated by the image sensing unit (11-13); a display unit which sequentially displays the still image data held by the holding unit , and a key input unit comprising a shutter button; a first detection unit (16-18) which detects a halfway press operation on the shutter button; a second detection unit (16-18) which detects a moving speed of the object by comparing an image frame obtained when the halfway press operation is detected by the first detection unit (16-18) and an image shot immediately before; characterized by a display speed control unit (16-18) which controls display speed at which the display unit sequentially displays still image data based on the moving speed of the object detected by the second detection unit (16-18); said display speed being slower than the continuous shooting speed of the image sensing unit (11-13); a third detection unit which detects a full press operation of the shutter button as external operation when the still image data is being displayed sequentially at the display speed controlled by the display speed control unit (16 - 18); and a recording unit which records the still image data being displayed on the display unit when the external operation is detected by the third detection unit . an image sensing unit (11-13) which shoots an object image continuously in terms of time to sequentially generate a plurality of still image data; a holding unit which holds the plurality of still image data sequentially generated by the image sensing unit (11-13); a display unit which sequentially displays the still image data held by the holding unit , and a key input unit comprising a shutter button; a first detection unit (16-18) which detects a halfway press operation on the shutter button; a second detection unit (16-18) which detects a moving speed of the object by comparing an image frame obtained when the halfway press operation is detected by the first detection unit (16-18) and an image shot immediately before; characterized by a display speed control unit (16-18) which controls display speed at which the display unit sequentially displays still image data based on the moving speed of the object detected by the second detection unit (16-18); said display speed being slower than the continuous shooting speed of the image sensing unit (11-13); a third detection unit which detects a full press operation of the shutter button as external operation when the still image data is being displayed sequentially at the display speed controlled by the display speed control unit (16 - 18); and a recording unit which records the still image data being displayed on the display unit when the external operation is detected by the third detection unit .
A method of providing a compression-ignition internal combustion engine (10; 80; 90), having: a fuel injection nozzle including a tip end portion exposed in a combustion chamber (12; 82; 92) and a nozzle hole formed at the tip end portion ; and a passage forming member (30; 40; 50; 60; 70; 84; 98) forming a flow guide passage (32; 86; 96) through which fuel injected from the nozzle hole passes, wherein the passage forming member (30; 40; 50; 60; 70; 84; 98) includes a passage wall portion (36; 42; 52; 62; 72; 88; 100) located radially outward of the flow guide passage (32; 86; 96), and wherein the passage wall portion (36; 42; 52; 62; 72; 88; 100) includes a first layer (36a; 42a; 52a; 62a; 72a; 88a; 100a) that is a base portion connected to a cylinder head (18; 84; 94), and a second layer (36b; 42b; 52b; 62b; 72b; 88b; 100b) located radially outward or radially inward of the first layer (36a; 42a; 52a; 62a; 72a; 88a; 100a), characterized in that the method comprises selecting the materials of the first layer (36a; 42a; 52a; 62a; 72a; 88a; 100a) and the second layer (36b; 42b; 52b; 62b; 72b; 88b; 100b) such that a toughness of the first layer (36a; 42a; 52a; 62a; 72a; 88a; 100a) is higher than a toughness of the second layer (36b; 42b; 52b; 62b; 72b; 88b; 100b) and a thermal conductivity of the second layer (36b; 42b; 52b; 62b; 72b; 88b; 100b) is lower than a thermal conductivity of the first layer (36a; 42a; 52a; 62a; 72a; 88a; 100a).
A thin film formation method, comprising: depositing a lithium metal film on a base material in a vacuum chamber ; oxidizing a surface of the lithium metal film by using oxygen in the vacuum chamber ; and carbonizing the oxidized surface of the lithium metal film by using carbon monoxide or carbon dioxide in the vacuum chamber . depositing a lithium metal film on a base material in a vacuum chamber ; oxidizing a surface of the lithium metal film by using oxygen in the vacuum chamber ; and carbonizing the oxidized surface of the lithium metal film by using carbon monoxide or carbon dioxide in the vacuum chamber .
A histochemical method of classifying a tumor on the basis of PD-L1 expression, the method comprising: contacting a tissue sample from the tumor with an antibody specific for human PD-L1 or an antigen-binding fragment thereof in a manner that deposits a stain on the tumor sample in proximity to areas of the tumor sample to which the antibody binds, wherein the antibody comprises a heavy chain CDR1 comprising SEQ ID NO: 1, a heavy chain CDR2 comprising SEQ ID NO: 2, a heavy chain CDR3 comprising SEQ ID NO: 3, a light chain CDR1 comprising SEQ ID NO: 4, a light chain CDR2 comprising SEQ ID NO: 5, a light chain CDR3 comprising SEQ ID NO: 6; quantitating a percentage of tumor cells having membrane-staining at any intensity above background; and scoring the tumor for PD-L1 expression, wherein the tumor is scored as PD-L1 positive if the percentage of tumor cells having membrane-staining at any intensity above background exceeds a predetermined cutoff that correlates with a likelihood that the tumor will respond to a PD-1 axis binding therapeutic agent, and wherein the cutoff is 25% or more of tumor cells having membrane-staining at any intensity above background and the scoring does not include quantitating anti-PD-Ll stained immune cells. contacting a tissue sample from the tumor with an antibody specific for human PD-L1 or an antigen-binding fragment thereof in a manner that deposits a stain on the tumor sample in proximity to areas of the tumor sample to which the antibody binds, wherein the antibody comprises a heavy chain CDR1 comprising SEQ ID NO: 1, a heavy chain CDR2 comprising SEQ ID NO: 2, a heavy chain CDR3 comprising SEQ ID NO: 3, a light chain CDR1 comprising SEQ ID NO: 4, a light chain CDR2 comprising SEQ ID NO: 5, a light chain CDR3 comprising SEQ ID NO: 6; quantitating a percentage of tumor cells having membrane-staining at any intensity above background; and scoring the tumor for PD-L1 expression, wherein the tumor is scored as PD-L1 positive if the percentage of tumor cells having membrane-staining at any intensity above background exceeds a predetermined cutoff that correlates with a likelihood that the tumor will respond to a PD-1 axis binding therapeutic agent, and wherein the cutoff is 25% or more of tumor cells having membrane-staining at any intensity above background and the scoring does not include quantitating anti-PD-Ll stained immune cells.
A cuvette comprising: a cuvette body including a single sensor window frame ; a sensor window positioned in the single sensor window frame ; and a window retainer mechanically coupling the sensor window to the cuvette body , wherein the sensor window includes a fluorescent coating sensitive to blood oxygen partial pressure such that the fluorescent coating changes colors or shades in response to varying oxygen partial pressures; wherein the window retainer is U-shaped and defines a circular aperture formed in a surface of the window retainer configured to be aligned with the window to permit optical and/or sensor access to blood in the cuvette; wherein the window retainer includes legs extending generally perpendicular to the surface and forming apertures that assist with coupling the retainer to the cuvette body ; wherein the cuvette body includes sets of teeth (226-232) that, when assembled, are formed to engage window retainer apertures to couple the window retainer and the cuvette body , wherein first teeth are positioned on opposite sides of the cuvette body and extend directly from the cuvette body , and also extending from the cuvette body are one or more L- or U-shaped components having teeth that protrude towards the cuvette body ; wherein the window retainer slips over the teeth (226-232) such that the teeth (226-232) extend into the apertures to secure the window retainer to the cuvette body . a cuvette body including a single sensor window frame ; a sensor window positioned in the single sensor window frame ; and a window retainer mechanically coupling the sensor window to the cuvette body , wherein the sensor window includes a fluorescent coating sensitive to blood oxygen partial pressure such that the fluorescent coating changes colors or shades in response to varying oxygen partial pressures; wherein the window retainer is U-shaped and defines a circular aperture formed in a surface of the window retainer configured to be aligned with the window to permit optical and/or sensor access to blood in the cuvette; wherein the window retainer includes legs extending generally perpendicular to the surface and forming apertures that assist with coupling the retainer to the cuvette body ; wherein the cuvette body includes sets of teeth (226-232) that, when assembled, are formed to engage window retainer apertures to couple the window retainer and the cuvette body , wherein first teeth are positioned on opposite sides of the cuvette body and extend directly from the cuvette body , and also extending from the cuvette body are one or more L- or U-shaped components having teeth that protrude towards the cuvette body ; wherein the window retainer slips over the teeth (226-232) such that the teeth (226-232) extend into the apertures to secure the window retainer to the cuvette body .
A gas turbine engine , comprising: a blade outer air seal (BOAS) mounted radially outwardly of a blade ; and a BOAS support , wherein a radial dimension of the BOAS support is selectively changeable in response to a flow of fluid (S) through the BOAS support to adjust a radial position of the BOAS relative to the blade , and the BOAS support includes at least three circumferentially spaced-apart flanges received in and engaging a respective slot formed in an engine case to restrict circumferential movement of the BOAS support relative to the engine case , wherein a radially outer surface of each flange is spaced from a radially outer surface of the respective slot in at least one operating condition, characterised in that the at least three circumferentially spaced-apart flanges extend radially outward in a direction substantially normal to an engine central longitudinal axis (A) from a radially outer surface of the BOAS support , and an outer circumferential face of each of the outer flanges of the at least three circumferentially spaced-apart flanges is configured to engage an outer circumferential face of a respective slot . a blade outer air seal (BOAS) mounted radially outwardly of a blade ; and a BOAS support , wherein a radial dimension of the BOAS support is selectively changeable in response to a flow of fluid (S) through the BOAS support to adjust a radial position of the BOAS relative to the blade , and the BOAS support includes at least three circumferentially spaced-apart flanges received in and engaging a respective slot formed in an engine case to restrict circumferential movement of the BOAS support relative to the engine case , wherein a radially outer surface of each flange is spaced from a radially outer surface of the respective slot in at least one operating condition, characterised in that the at least three circumferentially spaced-apart flanges extend radially outward in a direction substantially normal to an engine central longitudinal axis (A) from a radially outer surface of the BOAS support , and an outer circumferential face of each of the outer flanges of the at least three circumferentially spaced-apart flanges is configured to engage an outer circumferential face of a respective slot .