mhurhangee/ep-ind-claims huggingface dataset:
A surgical instrument, comprising: an elongate shaft assembly defining a shaft axis; a surgical end effector operably coupled to said elongate shaft assembly by an articulation joint such that said surgical end effector is selectively articulatable relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to said shaft axis; a flexible central firing beam support member extending across said articulation joint and comprising a distal end axially aligned along an end effector axis and coupled to said surgical end effector and a proximal end axially aligned along said shaft axis and attached to said elongate shaft assembly; and a longitudinally movable flexible firing beam assembly comprising a plurality of beam layers (2282, 2284), wherein said longitudinally movable flexible firing beam assembly is bifurcated by said central firing beam support member such that as said longitudinally movable flexible firing beam assembly is distally advanced, portions of said longitudinally movable flexible firing beam assembly pass adjacent to each lateral side of said central firing beam support member. an elongate shaft assembly defining a shaft axis; a surgical end effector operably coupled to said elongate shaft assembly by an articulation joint such that said surgical end effector is selectively articulatable relative to said elongate shaft assembly about an articulation axis (B-B) that is transverse to said shaft axis; a flexible central firing beam support member extending across said articulation joint and comprising a distal end axially aligned along an end effector axis and coupled to said surgical end effector and a proximal end axially aligned along said shaft axis and attached to said elongate shaft assembly; and a longitudinally movable flexible firing beam assembly comprising a plurality of beam layers (2282, 2284), wherein said longitudinally movable flexible firing beam assembly is bifurcated by said central firing beam support member such that as said longitudinally movable flexible firing beam assembly is distally advanced, portions of said longitudinally movable flexible firing beam assembly pass adjacent to each lateral side of said central firing beam support member.
A light-emitting diode light strip, wherein the LED light strip comprises a light strip, an mounting groove, a first connecting assembly, a second connecting assembly, and a third connecting assembly; the light strip is arranged in the mounting groove; the light strip comprises a first end portion and a second end portion which are opposite to each other, the first connecting assembly is connected with the first end portion and configured for electrically connecting the light strip with an external power supply, and the second connecting assembly is connected with the second end portion and configured for blocking off the second end portion; a plurality of light bars are arranged between the first end portion and the second end portion, and the third connecting assembly is arranged between adjacent light bars and configured for electrically connecting the adjacent light bars; and each of the light bars comprises an outer housing, a circuit board and an LED lamp, the circuit board is arranged within the outer housing along an extending direction of the light bar, and the LED lamp is arranged on the circuit board, and a gap is formed between the LED lamp and the outer housing, wherein the first connecting assembly comprises a first connecting element and a first connecting housing; the first connecting element comprises a first connecting element body, first plug pins and power lines, the first plug pins and the power lines are electrically connected with each other and are respectively arranged at two opposite ends of the first connecting element body, and the first plug pins are electrically connected with the light bar so as to direct current from the power lines into the light bar; and a first stopper is provided on the first connecting element body, and a first clamping groove is formed between the first stopper and the first connecting element body; the first connecting housing is locked by the first clamping groove so as to fix the first connecting element with the first connecting housing, characterized in that the first connecting housing comprises a first housing and a second housing, a folding spine is provided between the first housing and the second housing and configured for making the first housing and the second housing superposed one on another, and in that the first housing and the second housing each are provided thereon with a first clamping part, a protrusion and second gripping teeth, the protrusion is configured for preventing the first housing and the second housing which are superposed one on another from rebounding, and the second gripping teeth are configured for gripping the light strip; and the first clamping part is clamped in the first clamping groove so as to fix the first connecting element with the first connecting housing.
A heat ray cutting film consisting of a substrate, a light reflecting layer X1, a light reflecting layer X2, and an infrared ray absorbing layer in this order, wherein the infrared ray absorbing layer comprising composite tungsten oxide microparticles, wherein each of the light reflecting layer X1 and the light reflecting layer X2 is a layer obtained by fixing cholesteric liquid crystalline phase, wherein the light reflecting layer X1 and the light reflecting layer X2 reflect lights circularly polarized in directions opposite to each other, and wherein reflection center wavelengths of the light reflecting layer X1 and the light reflecting layer X2 are substantially equal to each other within a range of 800 to 1100 nm, wherein a total reflectivity of all light reflecting layers obtained by fixing cholesteric liquid crystalline phases is 80% or more, wherein the light reflecting layer X1 is arranged on a surface of the substrate, wherein the infrared ray absorbing layer is arranged on a surface of the light reflecting layer X2, and wherein the light reflecting layer X2 is arranged on a surface of light reflecting layer X1. wherein the infrared ray absorbing layer comprising composite tungsten oxide microparticles, wherein each of the light reflecting layer X1 and the light reflecting layer X2 is a layer obtained by fixing cholesteric liquid crystalline phase, wherein the light reflecting layer X1 and the light reflecting layer X2 reflect lights circularly polarized in directions opposite to each other, and wherein reflection center wavelengths of the light reflecting layer X1 and the light reflecting layer X2 are substantially equal to each other within a range of 800 to 1100 nm, wherein a total reflectivity of all light reflecting layers obtained by fixing cholesteric liquid crystalline phases is 80% or more, wherein the light reflecting layer X1 is arranged on a surface of the substrate, wherein the infrared ray absorbing layer is arranged on a surface of the light reflecting layer X2, and wherein the light reflecting layer X2 is arranged on a surface of light reflecting layer X1.
A reactor grade polypropylene comprising within a range from 0 wt% to 4 wt% ethylene and/or C4 to C12 α-olefin derived units, having a) a melt flow rate (MFR, 230°C/2.16kg) within a range from 20 to 500 g/10 min; b) an Mz/Mw of 4 to 7; c) a flexural modulus of at least 250 kpsi (1720 MPa) (0.5 in/min ASTM D790); d) a Mw/Mn value of 14 to 22. a) a melt flow rate (MFR, 230°C/2.16kg) within a range from 20 to 500 g/10 min; b) an Mz/Mw of 4 to 7; c) a flexural modulus of at least 250 kpsi (1720 MPa) (0.5 in/min ASTM D790); d) a Mw/Mn value of 14 to 22.
A decontamination system, more particularly for pharmatechnical applications with a room to be decontaminated, more particularly an isolation room as well as, above the room to be decontaminated, at least one air flow generator room with fans arranged therein for producing a gas circulating volume flow between the air flow generator room and the room to be decontaminated, and a decontamination unit which is arranged within the air flow generator room and/or has an outlet for decontamination agents into the air flow generator room and preferably comprises a decontamination agent evaporator, for releasing decontamination agents into the air flow generator room, wherein a catalyser for chemically breaking down the decontamination agent is provided in the air flow generator room, and wherein the decontamination agent can be moved by the fan through the catalyser and gas directing means are assigned to the fan which can be switched between a first operating mode, in which in order to distribute the decontamination agent released from the decontamination unit at least the greater part of the gas circulating volume flow moved by the fan can bypass the catalyser, and a second operating mode in which for breaking down the decontamination agent the greater part of the gas circulating volume flow moved by the fan passes through the catalyser, and wherein a control unit is assigned to at least one fan which is designed to control the at least one fan in such a way that in the first operating mode a smaller gas volume flow is moved than in the second operating mode, characterised in that a section of the gas directing means is assigned to the fan which can be drawn in by suction by the fan in the second operating mode so that at least one fan is connected to the catalyser is a gas-directing manner, or in that a section of the gas directing means is assigned to the fan which can be repelled by the fan in the second operating mode so that the at least one fan is connected to the catalyser in a gas-directing manner.
A tunable magnonic crystal device, comprising: - a spin wave waveguide, - a magnonic crystal structure provided in or on said spin wave waveguide, the magnonic crystal structure being adapted for selectively filtering a spin wave spectral component of a spin wave propagating through said spin wave waveguide such as to provide a filtered spin wave, and - a magneto-electric cell operably connected to said magnonic crystal structure, characterized in that, said magneto-electric cell comprises an electrode element for receiving a control voltage to select a spectral parameter of said spectral component of said spin wave by an interaction, dependent on said control voltage, between said magneto-electric cell and a magnetic property of the magnonic crystal structure. - a spin wave waveguide, - a magnonic crystal structure provided in or on said spin wave waveguide, the magnonic crystal structure being adapted for selectively filtering a spin wave spectral component of a spin wave propagating through said spin wave waveguide such as to provide a filtered spin wave, and - a magneto-electric cell operably connected to said magnonic crystal structure,
Method of cleaning a water environment, in particular an aquarium, a decorative miniature pond or oceanarium, of sludge, consists in intaking a water stream bearing sludge near the bottom of the water environment and supplying it to a chamber arresting and collecting sludge, characterized in that water with sludge is supplied to the upper zone of the chamber where it flows through and off the chamber from above a stagnation zone of the chamber, the direction of the flow being horizontal, parallel to the water level and perpendicular to the height of the chamber where stagnation of the water and sludge mixture remains, and in these circumstances of an upper stream flow in the chamber and simultaneous lower stagnation in the volume of the chamber, the sludge gravitates from the horizontal water stream towards the chamber bottom, where it is periodically or continuously removed from.
A method of fabricating a part coated with a protective coating, the method including the following step: • using micro-arc oxidation treatment to form a protective coating on the outside surface of a part, the part comprising a niobium matrix having metallic silicide inclusions present therein, the current passing through the part being controlled during the micro-arc oxidation treatment in order to subject the part to a succession of current cycles, the ratio of (quantity of positive charge applied to the part)/(quantity of negative charge applied to the part) lying in the range 0.80 to 1.6 for each current cycle, wherein each current cycle includes: - a positive stabilization stage during which a constant positive current (I p) passes through the part, the duration of the positive stabilization stage (T 2) lying in the range 15% to 50% of the total duration of said cycle, and - a negative stabilization stage during which a constant negative current (I n) passes through the part, the duration of the negative stabilization stage (T 6) lying in the range 30% to 80% of the total duration of said cycle. • using micro-arc oxidation treatment to form a protective coating on the outside surface of a part, the part comprising a niobium matrix having metallic silicide inclusions present therein, the current passing through the part being controlled during the micro-arc oxidation treatment in order to subject the part to a succession of current cycles, the ratio of (quantity of positive charge applied to the part)/(quantity of negative charge applied to the part) lying in the range 0.80 to 1.6 for each current cycle, - a positive stabilization stage during which a constant positive current (I p) passes through the part, the duration of the positive stabilization stage (T 2) lying in the range 15% to 50% of the total duration of said cycle, and - a negative stabilization stage during which a constant negative current (I n) passes through the part, the duration of the negative stabilization stage (T 6) lying in the range 30% to 80% of the total duration of said cycle.
Method of treating of a lens forming surface of at least one mold half of a mold for molding an ophthalmic lens, in particular of the lens forming surface of a glass mold half for molding a contact lens, especially a soft contact lens, the method including the steps of: - providing a plasma under atmospheric pressure, and - exposing the lens forming surface to the plasma under atmospheric pressure thereby hydrophilizing the lens forming surface without depositing any material on the lens forming surface, wherein the plasma is generated with the aid of a plasma torch comprising a plasma gun and a tubular plasma concentrator, the plasma concentrator sealingly surrounding the space between the plasma gun and the lens forming surface of the mold or mold half. - providing a plasma under atmospheric pressure, and - exposing the lens forming surface to the plasma under atmospheric pressure thereby hydrophilizing the lens forming surface without depositing any material on the lens forming surface,
Apparatus to move products to be forged comprising: - a manipulator provided with a gripper configured to support a product to be forged along a gripping axis, and a first front pivot, a second front pivot, a third rear pivot all lying on a common support plane (π), - a front structure connected to the first front pivot and to the second front pivot, - a rear structure connected to the third rear pivot, - a movement slider configured to support the front structure and the rear structure, said front structure comprising a first lever and a second lever connected respectively to said first front pivot and to said second front pivot, and a damping device comprising a linear damper or a hydraulic damper, connected to said first lever and configured to damp the stresses suffered by said gripper in a transverse direction with respect to said gripping axis by rotating said manipulator on said support plane (π) and with respect to said third rear pivot, wherein said first front pivot and said second front pivot are aligned along a common front pivoting axis, wherein said damping device has a damping axis located transverse to said gripping axis, wherein said front structure comprises a front frame provided with a first pivoting portion of said first lever and a second pivoting portion of said second lever, wherein said first pivoting portion comprises a hinge having a pivoting axis orthogonal to said front pivoting axis, characterized in that said second pivoting portion comprises a spherical joint configured to allow a spherical pivot of said second lever. - a manipulator provided with a gripper configured to support a product to be forged along a gripping axis, and a first front pivot, a second front pivot, a third rear pivot all lying on a common support plane (π), - a front structure connected to the first front pivot and to the second front pivot, - a rear structure connected to the third rear pivot, - a movement slider configured to support the front structure and the rear structure, said front structure comprising a first lever and a second lever connected respectively to said first front pivot and to said second front pivot, and a damping device comprising a linear damper or a hydraulic damper, connected to said first lever and configured to damp the stresses suffered by said gripper in a transverse direction with respect to said gripping axis by rotating said manipulator on said support plane (π) and with respect to said third rear pivot, wherein said first front pivot and said second front pivot are aligned along a common front pivoting axis, wherein said damping device has a damping axis located transverse to said gripping axis, wherein said front structure comprises a front frame provided with a first pivoting portion of said first lever and a second pivoting portion of said second lever, wherein said first pivoting portion comprises a hinge having a pivoting axis orthogonal to said front pivoting axis, characterized in that said second pivoting portion comprises a spherical joint configured to allow a spherical pivot of said second lever.
A radial fluid device comprising: a cylinder block comprising a first plurality of radially extending cylinders and a second plurality of radially extending cylinders; a first plurality of pistons (621a-621d) each slidably received within a different one of the first plurality of radially extending cylinders; a second plurality of pistons (621a'-621d') each slidably received within a different one of the second plurality of radially extending cylinders; a first cam disposed about the first plurality of radially extending cylinders and rotatable in a first direction and in a second direction opposite the first direction; and a second cam disposed about the second plurality of radially extending cylinders and rotatable in the first direction and the second direction, wherein the direction of rotation of the second cam is independent of the direction of rotation of the first cam; characterized in that the cylinder block is mounted for rotation. a cylinder block comprising a first plurality of radially extending cylinders and a second plurality of radially extending cylinders; a first plurality of pistons (621a-621d) each slidably received within a different one of the first plurality of radially extending cylinders; a second plurality of pistons (621a'-621d') each slidably received within a different one of the second plurality of radially extending cylinders; a first cam disposed about the first plurality of radially extending cylinders and rotatable in a first direction and in a second direction opposite the first direction; and a second cam disposed about the second plurality of radially extending cylinders and rotatable in the first direction and the second direction, wherein the direction of rotation of the second cam is independent of the direction of rotation of the first cam;
A monitoring attachment for monitoring a nut of a screw connection for crack formation, deformation and/or breakage, wherein the monitoring attachment has a socket portion, which can be placed on the outer circumference of the nut, with a conductor that is interrupted in the case of deformation, crack formation or breakage of the nut, characterized in that the conductor is embedded in at least one material and that the monitoring attachment has one or more magnets as fastening means.
A diamond polycrystalline body containing at least one selected from the group consisting of a simple substance of at least one element whose sulfide or chloride has a melting point of 100 to 500°C, a carbide of at least one element whose sulfide or chloride has a melting point of 100 to 500°C, and an oxide of at least one element whose sulfide or chloride has a melting point of 100 to 500°C, and in which crystal grains of the diamond polycrystalline body have an average grain size of less than or equal to 500nm, and including a second phase arranged at grain boundaries of said crystal grains as a first phase, the second phase being formed of the at least one selected from the group consisting of the simple substance, the carbide and the oxide, wherein, as said element, iron is added by more than or equal to 0.5 ppm and less than or equal to 70 ppm.
A broom comprising: an elongate handle attached at one end to a head; a plurality of bristles attached to the head on a different side from the handle; and an auxiliary tool portion configured for use in any one or more of the group selected from: scraping, cutting and scooping, characterised in that the auxiliary tool portion comprises a substantially rigid lower edge and is removably attached to the head and/or handle by means of a quick-release mechanism, the quick-release mechanism comprising: a skewer projecting through holes in the auxiliary tool portion and the head and/or the handle; a lever comprising a cam at a first end thereof, the first end being rotatably mounted to a first end of the skewer; and a stop mounted at a second end of the skewer. an elongate handle attached at one end to a head; a plurality of bristles attached to the head on a different side from the handle; and an auxiliary tool portion configured for use in any one or more of the group selected from: scraping, cutting and scooping, characterised in that the auxiliary tool portion comprises a substantially rigid lower edge and is removably attached to the head and/or handle by means of a quick-release mechanism, the quick-release mechanism comprising: a skewer projecting through holes in the auxiliary tool portion and the head and/or the handle; a lever comprising a cam at a first end thereof, the first end being rotatably mounted to a first end of the skewer; and a stop mounted at a second end of the skewer. a skewer projecting through holes in the auxiliary tool portion and the head and/or the handle; a lever comprising a cam at a first end thereof, the first end being rotatably mounted to a first end of the skewer; and a stop mounted at a second end of the skewer.