mhurhangee/ep-ind-claims huggingface dataset:
A valve assembly (100, 200), comprising: a valve body having an inlet port, an outlet port, and a flow passage therebetween; a valve element movably disposed within the valve body flow passage; an actuator (130, 230) operably coupled to the valve element, the actuator (130, 230) operable between a first position and a second position, to move the valve element between an opened position and a closed position, respectively; a lockout mechanism (150, 250), comprising at least one lockout screw (153, 251) contained in a receiver (156, 256) in the valve assembly (100, 200) and self-storing therein, the at least one lockout screw (153, 251) adapted to maintain the actuator (130, 230) in a desired position including the first position or the second position; and characterized in that the valve assembly further comprises a cover plate (140, 240) disposed over the receiver and having an aperture (142, 242) corresponding to the receiver (156, 256) wherein a head (154, 254) of the at least one lockout screw (153, 251) is smaller in width than the aperture (142, 242) and a width of a first set of threads (152, 252) of the at least one lockout screw (153, 251) is wider than the aperture (142, 242). a valve body having an inlet port, an outlet port, and a flow passage therebetween; a valve element movably disposed within the valve body flow passage; an actuator (130, 230) operably coupled to the valve element, the actuator (130, 230) operable between a first position and a second position, to move the valve element between an opened position and a closed position, respectively; a lockout mechanism (150, 250), comprising at least one lockout screw (153, 251) contained in a receiver (156, 256) in the valve assembly (100, 200) and self-storing therein, the at least one lockout screw (153, 251) adapted to maintain the actuator (130, 230) in a desired position including the first position or the second position; and characterized in that the valve assembly further comprises a cover plate (140, 240) disposed over the receiver and having an aperture (142, 242) corresponding to the receiver (156, 256) wherein a head (154, 254) of the at least one lockout screw (153, 251) is smaller in width than the aperture (142, 242) and a width of a first set of threads (152, 252) of the at least one lockout screw (153, 251) is wider than the aperture (142, 242).
A fibrinolytic nanogel, comprising: a crosslinked polymer network, fibrin binding moiety and tissue plasminogen activator, wherein the fibrinolytic nanogel is hollow particles.
A photovoltaic connection box which is mounted on the surface of a solar panel comprises: a box, a conductive terminal received in the box and having a first lateral wall which is perpendicular to the surface of the solar panel; and a diode connected to the first lateral wall of the conductive terminal, wherein the conductive terminal further comprises a bottom wall; and a second lateral wall opposite to the first lateral wall, wherein the first and second lateral walls (121, 122) are perpendicular to the bottom wall, and extend upward vertically from either side of the bottom wall, respectively, and wherein the conductive terminal further comprises: a lateral wing which is perpendicular to the second lateral wall and extends outwards horizontally from the second lateral wall, and wherein a busbar mounted on the solar panel is introduced into the photovoltaic connection box from the bottom wall, and is electrically connected to the lateral wing of the conductive terminal. a box, a conductive terminal received in the box and having a first lateral wall which is perpendicular to the surface of the solar panel; and a diode connected to the first lateral wall of the conductive terminal, wherein the conductive terminal further comprises a bottom wall; and a second lateral wall opposite to the first lateral wall, wherein the first and second lateral walls (121, 122) are perpendicular to the bottom wall, and extend upward vertically from either side of the bottom wall, respectively, and wherein the conductive terminal further comprises: a lateral wing which is perpendicular to the second lateral wall and extends outwards horizontally from the second lateral wall, and wherein a busbar mounted on the solar panel is introduced into the photovoltaic connection box from the bottom wall, and is electrically connected to the lateral wing of the conductive terminal. a lateral wing which is perpendicular to the second lateral wall and extends outwards horizontally from the second lateral wall, and wherein a busbar mounted on the solar panel is introduced into the photovoltaic connection box from the bottom wall, and is electrically connected to the lateral wing of the conductive terminal.
A coil actuator for low and medium voltage applications comprising: - an electromagnet operatively associated with a movable plunger to actuate said movable plunger; - a power & control unit electrically connected with said electromagnet to feed said electromagnet and control the operation of said electromagnet; - first and second input terminals (T1, T2) electrically connected with said power & control unit, wherein an input voltage is applied between said first and second input terminals during the operation of said coil actuator; wherein the coil actuator comprises a third input terminal electrically connected with said power & control unit, wherein said power & control unit is adapted to control the operation of said electromagnet according to normal control conditions or overriding control conditions depending on the operating condition (A,B) of said third input terminal, characterized in that said third input terminal is adapted to be in a first operating condition of being electrically floating, said first operating condition corresponding to normal control conditions for the operation of said electromagnet, or in a second operating condition of being electrically coupled with one of said first and second input terminals (T1, T2), said second operating condition corresponding to overriding control conditions for the operation of said electromagnet. - an electromagnet operatively associated with a movable plunger to actuate said movable plunger; - a power & control unit electrically connected with said electromagnet to feed said electromagnet and control the operation of said electromagnet; - first and second input terminals (T1, T2) electrically connected with said power & control unit, wherein an input voltage is applied between said first and second input terminals during the operation of said coil actuator; wherein the coil actuator comprises a third input terminal electrically connected with said power & control unit, wherein said power & control unit is adapted to control the operation of said electromagnet according to normal control conditions or overriding control conditions depending on the operating condition (A,B) of said third input terminal, characterized in that said third input terminal is adapted to be in a first operating condition of being electrically floating, said first operating condition corresponding to normal control conditions for the operation of said electromagnet, or in a second operating condition of being electrically coupled with one of said first and second input terminals (T1, T2), said second operating condition corresponding to overriding control conditions for the operation of said electromagnet.
A method of cementing comprising: placing an acid-soluble cement composition in a subterranean formation, the acid-soluble cement composition comprising: hydraulic cement, a component selected from the group consisting of cement kiln dust, pumicite, and a combination thereof, and water; allowing the acid-soluble cement composition to set; and contacting the set acid-soluble cement composition with an acid to dissolve the set acid-soluble cement composition. placing an acid-soluble cement composition in a subterranean formation, the acid-soluble cement composition comprising: hydraulic cement, a component selected from the group consisting of cement kiln dust, pumicite, and a combination thereof, and water; hydraulic cement, a component selected from the group consisting of cement kiln dust, pumicite, and a combination thereof, and water; allowing the acid-soluble cement composition to set; and contacting the set acid-soluble cement composition with an acid to dissolve the set acid-soluble cement composition.
A capsule rejection mechanism in a beverage extraction device, comprising a housing having a front portion and a back portion; a first frame positioned inside a front portion of the housing, having a front side wall, an outlet, and a chamber for holding a capsule with a circular edge; a second frame having an inlet, a left side and a right side, disposed inside a back portion of the housing and being movable forward and backward relative to the first frame; two jaws, each located at one of left and right sides of the second frame, and the two jaws being movable forward and backward together with the second frame, each jaw having a front portion, a first shaft and a second shaft, the front portion of each jaw extending to the front of the second frame to together form a clamp for holding the capsule, the first shaft and the second shaft respectively protruding vertically at the front and the rear of each jaw; and the housing further having two guiding grooves respectively at one side of the second frame for guiding the first shaft and the second shaft of each jaw when the first shaft and the second shaft sliding inside the corresponding guiding groove; when the first shaft sliding along the guiding groove, the second frame driving the front portions of the jaws to complete one opening and one closing relative to the second frame during the second frame completing one whole forward and backward movement; characterized in that the capsule rejection mechanism further comprises a pushing plate having a front surface disposed inside the chamber and being movable forward and backward, a plurality of apertures are provided on the pushing plate running through along the axis of the housing and communicating with the outlet for liquid to pass through, two backward pushing rods are provided on the front surface of the pushing plate, each backward pushing rod movably passes through the front side wall of the first frame; an elastic element, enabling the pushing plate to have a tendency to move backward away from the chamber; two guiding plates respectively located at one of left and right sides of the second frame, the front end of each guiding plate is positioned with the end of the backward pushing rod outside of the rear wall of the chamber, a trip hole is provided on each guiding plate arranged along the axis of the housing, the first shaft and the second shaft of each jaw pass through each trip hole slideable inside each trip hole, each first shaft touches the foremost end of each trip hole when the second frame moves forward to make the capsule attach to the pushing plate.
An exhaust gas turbocharger comprising: a turbine wheel attached to a rotating shaft and having a plurality of turbine blades in a circumferential direction; respective two scroll passages (15Aa, 15Ab) formed in a spiral shape outside the turbine wheel, divided into a plurality of pieces in the circumferential direction, and communicating with each other at a position of the turbine wheel located between mutual tongue sections (15Ac, 15Ad); and a thread disposed on a back facing surface located to face a back surface axially opposite to the turbine blade side of the turbine wheel, and extending toward the rotating shaft side from a starting point in the vicinity of the respective tongue sections (15Ac, 15Ad) so as to suppress a passage of a fluid between the back surface and the back facing surface, characterized in that the thread is continuously formed from one of the tongue sections (15Ac, 15Ad) to the other one of the tongue sections (15Ac, 15Ad) along a side portion of the rotating shaft. a turbine wheel attached to a rotating shaft and having a plurality of turbine blades in a circumferential direction; respective two scroll passages (15Aa, 15Ab) formed in a spiral shape outside the turbine wheel, divided into a plurality of pieces in the circumferential direction, and communicating with each other at a position of the turbine wheel located between mutual tongue sections (15Ac, 15Ad); and a thread disposed on a back facing surface located to face a back surface axially opposite to the turbine blade side of the turbine wheel, and extending toward the rotating shaft side from a starting point in the vicinity of the respective tongue sections (15Ac, 15Ad) so as to suppress a passage of a fluid between the back surface and the back facing surface, characterized in that the thread is continuously formed from one of the tongue sections (15Ac, 15Ad) to the other one of the tongue sections (15Ac, 15Ad) along a side portion of the rotating shaft.
A method for isolating a purification target comprising a protein which specifically binds sialic acid, said method comprising the step of: allowing the purification target to contact a molecule comprising sialic acid which has been linked to a solid support, whereby the purification target having a binding site for sialic acid is selectively bound by the molecule, wherein the purification target comprises a capsid protein selected from the group consisting of an AAV serotype 4 capsid protein, an AAV serotype 5 capsid protein, and a capsid comprising a fragment of an AAV4 or AAV5 capsid which contains the binding site for sialic acid. allowing the purification target to contact a molecule comprising sialic acid which has been linked to a solid support, whereby the purification target having a binding site for sialic acid is selectively bound by the molecule, wherein the purification target comprises a capsid protein selected from the group consisting of an AAV serotype 4 capsid protein, an AAV serotype 5 capsid protein, and a capsid comprising a fragment of an AAV4 or AAV5 capsid which contains the binding site for sialic acid.
A system for applying a print agent in a uniform manner to a substrate, comprising: a printhead assembly (202, 300, 400, 500, 600) and a controller, wherein the printhead assembly (202, 300, 400, 500, 600) comprises: a chamber (104, 204) having an inlet to receive a print agent; an actuator comprising a piezoelectric element operatively connected to the chamber (104, 204); and a set of three or more nozzles (106, 206, 306, 406, 506, 606) fluidly coupled to the chamber (104, 204); and the controller is to cause actuation of the piezoelectric element to cause print agent to flow from the chamber (104, 204) through the nozzles (106, 206, 306, 406, 506, 606), wherein, in use of the system, the nozzles (106, 206, 306, 406, 506, 606) are orientated such that: (i) when a substrate is moved beneath the nozzles (106, 206, 306, 406, 506, 606) in a scan direction during a print operation, the nozzles (106, 206, 306, 406, 506, 606) are arranged such that they are spaced in a cross scan direction at a same distance, d; and (ii) each of the plurality of nozzles (106, 206, 306, 406, 506, 606) is a same distance, r, from center (360, 460) of the actuator. a chamber (104, 204) having an inlet to receive a print agent; an actuator comprising a piezoelectric element operatively connected to the chamber (104, 204); and a set of three or more nozzles (106, 206, 306, 406, 506, 606) fluidly coupled to the chamber (104, 204); and an actuator comprising a piezoelectric element operatively connected to the chamber (104, 204); and a set of three or more nozzles (106, 206, 306, 406, 506, 606) fluidly coupled to the chamber (104, 204); and the controller is to cause actuation of the piezoelectric element to cause print agent to flow from the chamber (104, 204) through the nozzles (106, 206, 306, 406, 506, 606), wherein, in use of the system, the nozzles (106, 206, 306, 406, 506, 606) are orientated such that: (i) when a substrate is moved beneath the nozzles (106, 206, 306, 406, 506, 606) in a scan direction during a print operation, the nozzles (106, 206, 306, 406, 506, 606) are arranged such that they are spaced in a cross scan direction at a same distance, d; and (ii) each of the plurality of nozzles (106, 206, 306, 406, 506, 606) is a same distance, r, from center (360, 460) of the actuator. (i) when a substrate is moved beneath the nozzles (106, 206, 306, 406, 506, 606) in a scan direction during a print operation, the nozzles (106, 206, 306, 406, 506, 606) are arranged such that they are spaced in a cross scan direction at a same distance, d; and (ii) each of the plurality of nozzles (106, 206, 306, 406, 506, 606) is a same distance, r, from center (360, 460) of the actuator.
An electro-optically active device comprising: a silicon on insulator, SOI, substrate including a silicon base layer, a buried oxide, BOX, layer on top of the silicon base layer, a silicon on insulator layer on top of the BOX layer, and a substrate cavity which extends through the SOI layer, the BOX layer and into the silicon base layer, such that a base of the substrate cavity is formed by a portion of the silicon base layer; an electro-optically active waveguide including an electro-optically active stack within the substrate cavity; and a buffer region within the substrate cavity beneath the electro-optically active waveguide, the buffer region comprising a layer of Ge, a layer of GaAs, characterised in that the buffer region further comprises a layer of graded InAIAs. a silicon on insulator, SOI, substrate including a silicon base layer, a buried oxide, BOX, layer on top of the silicon base layer, a silicon on insulator layer on top of the BOX layer, and a substrate cavity which extends through the SOI layer, the BOX layer and into the silicon base layer, such that a base of the substrate cavity is formed by a portion of the silicon base layer; an electro-optically active waveguide including an electro-optically active stack within the substrate cavity; and a buffer region within the substrate cavity beneath the electro-optically active waveguide, the buffer region comprising a layer of Ge, a layer of GaAs, characterised in that the buffer region further comprises a layer of graded InAIAs.
An outdoor unit of an air conditioning device in which a heat exchanger is arranged in a bottom plate in a substantially rectangular parallelepiped shape casing including a top plate, side plates (44, 54, 55), and the bottom plate, wherein the heat exchanger is mounted on a plurality of expanded portions formed in the bottom plate, a first drainage hole through which a drainage fluid from the heat exchanger is discharged to an exterior is formed in the bottom plate and a second drainage hole smaller than the first drainage hole is formed in the bottom plate under the heat exchanger excluding the expanded portions, characterized in that the first drainage hole is formed at a position close to the windward side of an airflow passing through the heat exchanger in each of the expanded portions.
A method of decoding an image encoding (LDR_CONT) having a first luminance dynamic range (R oLDR), which is a low dynamic range having a peak brightness of the range of 500 nit, or lower, into an output image (HDR_FIN) having a second luminance dynamic range (R_oHDR), which is a high dynamic range having a peak brightness of at least 750 nit, in which image encoding (LDR_CONT) are encoded pixel colors of an original image (HDR_ORIG) of a high dynamic range scene, the method comprising: - tone mapping with a predetermined tone mapping strategy (FL2H) at least the lumas of pixels in the image encoding (LDR_CONT) onto lumas of pixels in an intermediate image (HDR_PRED) corresponding to the second luminance dynamic range (R oHDR); and the method being characterized in that it further comprises: - modifying the lumas of a specified sub-set of the pixels of the intermediate image (HDR PRED) by multiplying them by predetermined multiplication factors, with a separate multiplication factor for each of the pixels in the sub-set of the pixels, which multiplication factors are read from metadata which is received in the image signal which also contains the image encoding (LDR_CONT), the predetermined multiplication factors representing a multiplicative correction to be applied to the lumas of the sub-set of the pixels of the intermediate image for obtaining a correction of the tone mapping from the first luminance dynamic range to the second luminance dynamic range, resulting in the output image (HDR_FIN). - tone mapping with a predetermined tone mapping strategy (FL2H) at least the lumas of pixels in the image encoding (LDR_CONT) onto lumas of pixels in an intermediate image (HDR_PRED) corresponding to the second luminance dynamic range (R oHDR); and the method being characterized in that it further comprises: - modifying the lumas of a specified sub-set of the pixels of the intermediate image (HDR PRED) by multiplying them by predetermined multiplication factors, with a separate multiplication factor for each of the pixels in the sub-set of the pixels, which multiplication factors are read from metadata which is received in the image signal which also contains the image encoding (LDR_CONT), the predetermined multiplication factors representing a multiplicative correction to be applied to the lumas of the sub-set of the pixels of the intermediate image for obtaining a correction of the tone mapping from the first luminance dynamic range to the second luminance dynamic range, resulting in the output image (HDR_FIN).
A high-strength stainless steel seamless tube or pipe for oil country tubular goods, comprising a composition consisting of C: 0.005 to 0.05%, Si: 0.1 to 0.5%, Mn: 0.15% to 1.0%, P: 0.030% or less, S: 0.005% or less, Cr: 15.5% to 17.5%, Ni: 3.0% to 6.0%, Mo: 1.5% to 5.0%, Cu: 0.3 to 3.5%, W: 0.1 to 2.5%, and N: 0.01 to 0.15%, and optionally V: 0.02% to 0.20%, Al: 0.10% or less, at least one selected from the group consisting of Nb: 0.02% to 0.50%, Ti: 0.02% to 0.16%, Zr: 0.50% or less, and B: 0.0030% or less, at least one selected from the group consisting of REM: 0.005% or less, Ca: 0.005% or less, and Sn: 0.20% or less, and the remainder being Fe and incidental impurities, on a percent by mass basis, while adjustment is performed in such a way that C, Si, Mn, Cr, Ni, Mo, Cu, and N satisfy the following formula, Cu, Mo, and W further satisfy the following formula, and Cu, Mo, W, Cr, and Ni further satisfy the following formula, − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 Cu + Mo + 0.5 W ≥ 5.8 Cu + Mo + W + Cr + 2 Ni ≤ 31 where C, Si, Mn, Cr, Ni, Mo, Cu, N and W: content of each element (percent by mass), and having a microstructure including, on a volume fraction basis, 40% to 90% of a martensite phase as a basic phase and 10% to 60% of ferrite phase and 30% or less of residual austenite phase as a secondary phase. where C, Si, Mn, Cr, Ni, Mo, Cu, N and W: content of each element (percent by mass), and having a microstructure including, on a volume fraction basis, 40% to 90% of a martensite phase as a basic phase and 10% to 60% of ferrite phase and 30% or less of residual austenite phase as a secondary phase.