mhurhangee/ep-ind-claims huggingface dataset:
A heat-activated triggering device comprising: a housing; a bi-metal triggering element including: a metal pin made of a first metal; and a sleeve surrounding part of the pin, the sleeve being made of a second metal different from the first metal, the sleeve having a first end abutting against the housing and a second end opposite the first end; a firing pin operatively coupled to the triggering element, wherein the second end of the sleeve abuts against the firing pin, such that at a predetermined temperature the sleeve places a force on the metal pin, causing the metal pin to break; and a lockout configured to selectively prevent movement of the firing pin. a housing; a bi-metal triggering element including: a metal pin made of a first metal; and a sleeve surrounding part of the pin, the sleeve being made of a second metal different from the first metal, the sleeve having a first end abutting against the housing and a second end opposite the first end; a metal pin made of a first metal; and a sleeve surrounding part of the pin, the sleeve being made of a second metal different from the first metal, the sleeve having a first end abutting against the housing and a second end opposite the first end; a firing pin operatively coupled to the triggering element, wherein the second end of the sleeve abuts against the firing pin, such that at a predetermined temperature the sleeve places a force on the metal pin, causing the metal pin to break; and a lockout configured to selectively prevent movement of the firing pin.
A method for performing threat detection, comprising: receiving, at a threat analytics system, aggregated event data from a client system, the aggregated event data comprising aggregated event data structures respectively being a Bloom filter (302, 304, 306, 308), each of the aggregated event data structures associated with a given time period and comprising event data associated with a plurality of different events occurring on the client system in the given time period, the aggregated event data including an obfuscated representation of entity identifiers associated with each of the plurality of different events occurring on the client system; in response to receiving the aggregated event data, storing, at the threat analytics system, the aggregated event data organized as a time-based hierarchy of the aggregated event data structures, the aggregated event data structures having different levels of time-based granularity in accordance with the respective given time period; in response to storing the aggregated event data, determining, at the threat analytics system, a subset of the event data stored in an aggregated event data structure of the aggregated event data structures having a lowest level of time-based granularity and that is associated with at least one cyber-threat; and reporting a message, by the threat analytics system, indicating the presence of the at least one cyber-threat for each event of the subset to the client system. receiving, at a threat analytics system, aggregated event data from a client system, the aggregated event data comprising aggregated event data structures respectively being a Bloom filter (302, 304, 306, 308), each of the aggregated event data structures associated with a given time period and comprising event data associated with a plurality of different events occurring on the client system in the given time period, the aggregated event data including an obfuscated representation of entity identifiers associated with each of the plurality of different events occurring on the client system; in response to receiving the aggregated event data, storing, at the threat analytics system, the aggregated event data organized as a time-based hierarchy of the aggregated event data structures, the aggregated event data structures having different levels of time-based granularity in accordance with the respective given time period; in response to storing the aggregated event data, determining, at the threat analytics system, a subset of the event data stored in an aggregated event data structure of the aggregated event data structures having a lowest level of time-based granularity and that is associated with at least one cyber-threat; and reporting a message, by the threat analytics system, indicating the presence of the at least one cyber-threat for each event of the subset to the client system.
An isolated antibody that binds human CD134, comprising a light chain variable region of SEQ ID NO: 98, or having 1, 2 or 3 amino acid substitutions in the VL of SEQ ID NO: 98 and a heavy chain variable region, wherein the VH comprises the amino acid sequence of SEQ ID NO: 134, or having 1, 2 or 3 amino acid substitutions in the VH of SEQ ID NO: 134 or the VH comprises the amino acid sequence of SEQ ID NO: 97, or having 1, 2 or 3 amino acid substitutions in the VH of SEQ ID NO: 97, wherein a. the HCDR3 comprises the amino acid sequence of SEQ ID NOs: 8, 139 or 140; b. the HCDR2 comprises the amino acid sequence of SEQ ID NOs: 7, 135, 136, 137 or 138; and c. the HCDR1 comprises the amino acid sequence of SEQ ID NO: 6. a. the HCDR3 comprises the amino acid sequence of SEQ ID NOs: 8, 139 or 140; b. the HCDR2 comprises the amino acid sequence of SEQ ID NOs: 7, 135, 136, 137 or 138; and c. the HCDR1 comprises the amino acid sequence of SEQ ID NO: 6.
A transcatheter valve prosthesis having a compressed, delivery configuration and an expanded configuration for deployment within a native heart valve, the valve prosthesis comprising: a self-expanding frame that includes - a valve receiving portion defining an opening therethrough, the valve receiving portion being substantially planar with a longitudinal length that is greater than a transverse width, and having opposing upstream and downstream surfaces (116, 118) extending between opposing first and second ends (120A, 120B) of the valve receiving portion, and - first and second anchors (110A, 110B) respectively disposed at the opposing first and second ends (120A, 120B) of the valve receiving portion, wherein the first and second anchors (110A, 110B) are oriented substantially perpendicular to the opposing upstream and downstream surfaces (116, 118) of the valve receiving portion when the valve prosthesis is in the expanded configuration; and a prosthetic valve component disposed within the opening of the valve receiving portion and secured thereto. a self-expanding frame that includes - a valve receiving portion defining an opening therethrough, the valve receiving portion being substantially planar with a longitudinal length that is greater than a transverse width, and having opposing upstream and downstream surfaces (116, 118) extending between opposing first and second ends (120A, 120B) of the valve receiving portion, and - first and second anchors (110A, 110B) respectively disposed at the opposing first and second ends (120A, 120B) of the valve receiving portion, wherein the first and second anchors (110A, 110B) are oriented substantially perpendicular to the opposing upstream and downstream surfaces (116, 118) of the valve receiving portion when the valve prosthesis is in the expanded configuration; and - a valve receiving portion defining an opening therethrough, the valve receiving portion being substantially planar with a longitudinal length that is greater than a transverse width, and having opposing upstream and downstream surfaces (116, 118) extending between opposing first and second ends (120A, 120B) of the valve receiving portion, and - first and second anchors (110A, 110B) respectively disposed at the opposing first and second ends (120A, 120B) of the valve receiving portion, wherein the first and second anchors (110A, 110B) are oriented substantially perpendicular to the opposing upstream and downstream surfaces (116, 118) of the valve receiving portion when the valve prosthesis is in the expanded configuration; a prosthetic valve component disposed within the opening of the valve receiving portion and secured thereto.
A colloidal crystal preparation method, comprising the steps of: forming a compressed gas as short-time gas pulses from a compressed gas by using gas pulse formation means and outputting the formed compressed gas as short-time gas pulses; and applying the compressed gas as short-time gas pulses to a colloidal crystal preparation vessel having a flat plate type capillary portion, wherein the flat plate type capillary portion is filled with a colloidal solution, the colloidal solution starts to flow at a pressure rise phase and the flow becomes strongest at a constant pressure phase of the applied compressed gas as short-time gas pulses, and a hard-stopping motion is given to the flow of the colloidal solution at a pressure drop phase of the applied compressed gas as short-time gas pulses. forming a compressed gas as short-time gas pulses from a compressed gas by using gas pulse formation means and outputting the formed compressed gas as short-time gas pulses; and applying the compressed gas as short-time gas pulses to a colloidal crystal preparation vessel having a flat plate type capillary portion, wherein the flat plate type capillary portion is filled with a colloidal solution, the colloidal solution starts to flow at a pressure rise phase and the flow becomes strongest at a constant pressure phase of the applied compressed gas as short-time gas pulses, and a hard-stopping motion is given to the flow of the colloidal solution at a pressure drop phase of the applied compressed gas as short-time gas pulses.
Control device for a domestic appliance, in particular a hob control device, having a control means support unit (10a-10g) that has at least one magnet means (64a-64g) and at least one function field (12a-12g), which is provided for releasable coupling with at least one control means (14a-14g), wherein the control means support unit (10a-10g) is provided for coupling with the removable control means (14a-14g), and having at least the removable control means (14a-14g) provided for coupling with the function field (12a-12g), characterised in that the control means (14a-14g) protrudes, in a functionally coupled state with the function field (12a-12g), over at least one lateral contour (76a; 76c; 76e; 76f; 76g) of the control means support unit (10a-10g), wherein the magnet means (64a-64g) extends at least in the shape of an annular segment in the circumferential direction (68a-68g) of the function field (12a-12e; 66f; 12g) and the magnet means (64a-64g) has a recess in its inner region in relation to an axis of rotation (32a-32g) of the function field (12a-12e; 66f; 12g) and in the circumferential direction (68a-68g) of a circle extending about the axis of rotation (32a-32g) of the function field (12a-12e; 66f; 12g) has an extension component, which is at least twice as large as at least one extension component of the magnet means (64a-64g) in the direction radial to the axis of rotation (32a-32g), wherein the axis of rotation of the function field (12a-12e; 66f; 12g) is an axis of rotation corresponding to the axis of rotation of the control means (14a-14g) in its functional state and about which the control means (14a-14g) is rotated for control of a unit.
Method for the production of a curved piece from a continuous metal element extending along a longitudinal axis and advancing along a direction defined by said longitudinal axis, said method comprising the steps of: - advancing said element through a calendering station in such a way that each length of the element assumes a pre-established curvature, - stopping the advancing of the element after a curved portion thereof has passed through a wrap-bending station located downstream of the calendering station, and - wrap-bending the length of the element located at said wrap-bending station, said method being characterised in that it comprises the further steps of: - simultaneously with said wrap-bending step, conveying said curved portion to a stretch-bending station, - stretch-bending said curved portion, - resuming the advance of the element until the wrap-bent length is at a cutting station, and - cutting said element in the wrap-bent length, thus producing the curved piece. - advancing said element through a calendering station in such a way that each length of the element assumes a pre-established curvature, - stopping the advancing of the element after a curved portion thereof has passed through a wrap-bending station located downstream of the calendering station, and - wrap-bending the length of the element located at said wrap-bending station, - simultaneously with said wrap-bending step, conveying said curved portion to a stretch-bending station, - stretch-bending said curved portion, - resuming the advance of the element until the wrap-bent length is at a cutting station, and - cutting said element in the wrap-bent length, thus producing the curved piece.
A system for delivering a prosthetic heart valve, comprising: a heart valve including a prosthetic valve having a non-expandable, non-collapsible orifice, the heart valve further including an expandable frame extending from an inflow end thereof, the frame having a contracted state for delivery to an implant position and an expanded state; a valve holder connected to a proximal end of the heart valve; a balloon catheter having a balloon; and a handle shaft configured to attach to a proximal end of the valve holder and having a lumen for passage of the catheter, the balloon extending distally through the handle shaft, past the holder and through the heart valve, characterized in that the handle shaft is malleable and axially rigid. a heart valve including a prosthetic valve having a non-expandable, non-collapsible orifice, the heart valve further including an expandable frame extending from an inflow end thereof, the frame having a contracted state for delivery to an implant position and an expanded state; a valve holder connected to a proximal end of the heart valve; a balloon catheter having a balloon; and a handle shaft configured to attach to a proximal end of the valve holder and having a lumen for passage of the catheter, the balloon extending distally through the handle shaft, past the holder and through the heart valve, characterized in that the handle shaft is malleable and axially rigid.
A projection system comprising: an imaging unit that captures an image of a specific area (135, 140), which is specified by light excited by light having a predetermined wavelength, in a subject; a projector that projects the image (R310, G320) of the specific area (135, 140) and associated information associated with the image of the specific area (135, 140) by visible light; a distance acquiring unit that acquires a distance from the distance acquiring unit to the subject; a controller that adjusts a projection magnification in the projector based on the distance, acquired by the distance acquiring unit, from the distance acquiring unit to the subject; and an optical unit that causes an optical path of the imaging unit with respect to the subject and an optical path of the projector with respect to the subject to coincide with each other, characterised in that the associated information is a line away from the specific area (135, 140) by a predetermined width. an imaging unit that captures an image of a specific area (135, 140), which is specified by light excited by light having a predetermined wavelength, in a subject; a projector that projects the image (R310, G320) of the specific area (135, 140) and associated information associated with the image of the specific area (135, 140) by visible light; a distance acquiring unit that acquires a distance from the distance acquiring unit to the subject; a controller that adjusts a projection magnification in the projector based on the distance, acquired by the distance acquiring unit, from the distance acquiring unit to the subject; and an optical unit that causes an optical path of the imaging unit with respect to the subject and an optical path of the projector with respect to the subject to coincide with each other, characterised in that the associated information is a line away from the specific area (135, 140) by a predetermined width.
Artificial agglomerated stone comprising: a) 5-15 wt% of hardened organic resin, based on the weight of the agglomerated stone, b) 50-90 wt% of inorganic fillers with a particle size ranging from 0.1 mm to 2.0 mm, based on the weight of the agglomerated stone, and c) 5-32 wt% of micronized inorganic fillers with a particle size < 100 micrometers, based on the weight of the agglomerated stone; wherein the micronized inorganic fillers comprise: c') 50-98 wt% of feldspar, based on the weight of the micronized inorganic fillers, and c") 2-30 wt% of a calcium carbonate material, based on the weight of the micronized inorganic fillers; and wherein the calcium carbonate material comprises a calcium carbonate content of at least 80% related to the weight of the calcium carbonate material, and wherein the particle size is determined as explained in the description. a) 5-15 wt% of hardened organic resin, based on the weight of the agglomerated stone, b) 50-90 wt% of inorganic fillers with a particle size ranging from 0.1 mm to 2.0 mm, based on the weight of the agglomerated stone, and c) 5-32 wt% of micronized inorganic fillers with a particle size < 100 micrometers, based on the weight of the agglomerated stone; c') 50-98 wt% of feldspar, based on the weight of the micronized inorganic fillers, and c") 2-30 wt% of a calcium carbonate material, based on the weight of the micronized inorganic fillers;
Latching system for a door or window, comprising a first snap stop member adapted to be arranged at a side edge of a leaf of the door or window, said first stop member comprising a pawl rotatable about an axis perpendicular to the plane defined by the leaf, a second snap stop member adapted to be arranged at an upper or lower edge of the leaf, said second stop member comprising a pin translatable in a vertical direction, and a handle rotatable so as to control the releasing movement of said first and second stop members, said handle being adapted to be arranged at the side edge of the leaf and being rotatable about a horizontal axis parallel to the plane defined by the leaf, and a first and a second transmission mechanism for converting a rotation of the handle into a rotation of the pawl and a translation of the pin, respectively.
A side cover for a saddle ride type all-terrain vehicle having an engine mounted to a vehicle body frame, comprising: a body cover, wherein said body cover covers a lateral upper side of said engine; a floor step, wherein said floor step is disposed on a lateral lower side of said engine; a front fender, wherein said front fender (527,528) covers the upper and rear sides of a front wheel (516,517); and a cover member, wherein said cover member covers a front lateral side of said engine, and said cover member is detachably attached to said body cover, said floor step and said front fender, wherein the cover member is mounted to the body cover, the floor step and the front fender which are provided in the surroundings of the cover member, wherein the side cover is composed of the body cover, the floor step the front fender and the cover member, and wherein an opening portion is defined by the body cover, the floor step and the cover member, and when detach the cover member only, expose the front portion of the engine to the exterior for enhancing the maintainability of the engine. a body cover, wherein said body cover covers a lateral upper side of said engine; a floor step, wherein said floor step is disposed on a lateral lower side of said engine; a front fender, wherein said front fender (527,528) covers the upper and rear sides of a front wheel (516,517); and a cover member, wherein said cover member covers a front lateral side of said engine, and said cover member is detachably attached to said body cover, said floor step and said front fender, wherein the cover member is mounted to the body cover, the floor step and the front fender which are provided in the surroundings of the cover member, wherein the side cover is composed of the body cover, the floor step the front fender and the cover member, and wherein an opening portion is defined by the body cover, the floor step and the cover member, and when detach the cover member only, expose the front portion of the engine to the exterior for enhancing the maintainability of the engine.
An inter-vertebral cage (10, 40, 45, 50, 55) comprising: a plurality of cage sections (11, 11', 41, 46, 51, 56); and a hinge element that connects adjacent ones of the cage sections (11, 11', 41, 46, 51, 56) together for relative movement, the hinge elements urging the cage sections (11, 11', 41, 46, 51, 56) to move from an extended orientation to an installed orientation, characterized in that the hinge elements urge adjacent ones of the cage sections (11, 11', 41, 46, 51, 56) to extend at an angle relative to one another, and wherein each of the hinge elements has greater torsional stresses when the cage sections (11, 11', 41, 46, 51, 56) are in the extended orientation than when the cage sections (11, 11', 41, 46, 51, 56) are in the installed orientation; and the inter-vertebral cage further including first (12, 12') and second end sections (13, 13') that are connected to the plurality of cage sections (11, 11', 41, 46, 51, 56), wherein the first (12, 12') and second end sections (13, 13') have respective locking structures (12c, 12c', 13b, 13b') provided thereon for selectively retaining the first (12, 12') and second end sections (13, 13') together.
A vascular graft comprising: at least one conduit having a first conduit region and a second conduit region, the first conduit region and the second conduit region being collinear and formed in a single tubular component with an inner lumen, wherein the first conduit region is connected to a first end of the second conduit region, and a second end of the second conduit region contains an opening for connection to a vessel; and at least one perturbation formed in the inner lumen and separating the first conduit region and the second conduit region, the perturbation configured to form a neck down area in the inner lumen to create a vortex in the second conduit region, wherein the area of the graft distal to the at least one perturbation is configured to inhibit cellular ingrowth, and the area of the graft proximal to the at least one perturbation is configured to promote cellular ingrowth. at least one conduit having a first conduit region and a second conduit region, the first conduit region and the second conduit region being collinear and formed in a single tubular component with an inner lumen, wherein the first conduit region is connected to a first end of the second conduit region, and a second end of the second conduit region contains an opening for connection to a vessel; and at least one perturbation formed in the inner lumen and separating the first conduit region and the second conduit region, the perturbation configured to form a neck down area in the inner lumen to create a vortex in the second conduit region, wherein the area of the graft distal to the at least one perturbation is configured to inhibit cellular ingrowth, and the area of the graft proximal to the at least one perturbation is configured to promote cellular ingrowth.