mhurhangee/ep-ind-claims huggingface dataset:
A dosing system having a dosage-dispensing unit (50, 250) and a dosage-dispensing device (100, 200), wherein the dosage-dispensing device (100, 200) comprises a holder device (121, 221) for holding the dosage-dispensing unit (50, 250), and wherein the dosage-dispensing unit (50, 250) comprises an interior space (73, 373, 473, 573) that is delimited by a sidewall (79, 279, 579) and a bottom portion (78, 278, 378, 478, 578), and further comprises an outlet orifice (75, 275, 375, 475, 575A, 575B) that is formed in the bottom portion (78, 278, 378, 478, 578), wherein the dosage-dispensing unit (50, 250) can be connected to the holder device (121, 221) of the dosage-dispensing device (100, 200) and the holder device (121, 221) is supported so as to be movable in a prescribed direction of movement, and the internal surface of the bottom portion (78, 278, 378, 478, 578) facing towards the interior space (73, 373, 473, 573) includes an at least linear surface domain that starts at the outlet orifice (75, 275, 375, 475, 575A, 575B), which linear surface domain extends from the central lengthwise axis of the outlet orifice (75, 275, 375, 475, 575A, 575B) up to the sidewall (79, 279, 579), wherein a predetermined angle ( α) as measured between the linear surface domain and the central lengthwise axis is smaller than 90°, characterized in that the prescribed direction of movement occurs at a predetermined angle ( α) relative to the central longitudinal axis of the outlet orifice (75, 275, 375, 475, 575A, 575B) and along the at least linear surface domain of the internal surface of the bottom portion (78, 278, 378, 478, 578) facing towards the interior space (73, 373, 473, 573).
A process for the preparation of the insulin-oligomer conjugate IN-105 of formula insulin-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3, the process comprising: i) cloning and expression of the synthetic polypeptide precursor IP-F having SEQ ID NO:2, in Pichia pastoris; ii) fermentation of the Pichia pastoris clone expressing IPF; iii) isolation and purification of the IP-F; iv) conjugation of the IP-F with a succinimide derivative of C 14 H 23 NO 8 (CAS No. 622 405-78-1) at Lys-B 29 of the B chain in IP-F to obtain the IP-F oligomer conjugate IP-F-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3; v) treatment of the IP-F-oligomer conjugate IP-F-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3 with a protease to get the active insulin-oligomer conjugate insulin-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3. i) cloning and expression of the synthetic polypeptide precursor IP-F having SEQ ID NO:2, in Pichia pastoris; ii) fermentation of the Pichia pastoris clone expressing IPF; iii) isolation and purification of the IP-F; iv) conjugation of the IP-F with a succinimide derivative of C 14 H 23 NO 8 (CAS No. 622 405-78-1) at Lys-B 29 of the B chain in IP-F to obtain the IP-F oligomer conjugate IP-F-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3; v) treatment of the IP-F-oligomer conjugate IP-F-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3 with a protease to get the active insulin-oligomer conjugate insulin-CO-CH 2 -CH 2 -(OCH 2 CH 2) 3 -OCH 3.
A device comprising: at least one processor; and at least one memory including computer program code; the at least one memory and the computer program code configured to, with the at least one processor, cause the device to: generate, at a downstream device, a tunnel endpoint identifier for a tunnel from an upstream device to the downstream device at least in part based on a target address of an information packet to be transmitted in the tunnel; and send the tunnel endpoint identifier towards the upstream device for establishment of the tunnel.
A heat-resistant resin composition, comprising: a first copolymer comprising a conjugated diene-based polymer, units derived from an aromatic vinyl-based monomer, and units derived from a vinyl cyan-based monomer; a second copolymer comprising units derived from an aromatic vinyl-based monomer and units derived from a vinyl cyan -based monomer and having a glass transition temperature of 115 °C or more, measured as described in the description; and a third copolymer comprising units derived from an aromatic vinyl-based monomer and units derived from a vinyl cyan -based monomer, wherein the second copolymer has a linear shape, and the third copolymer has a branched shape and a branched degree of 2 to 8, measured as described in the description. a first copolymer comprising a conjugated diene-based polymer, units derived from an aromatic vinyl-based monomer, and units derived from a vinyl cyan-based monomer; a second copolymer comprising units derived from an aromatic vinyl-based monomer and units derived from a vinyl cyan -based monomer and having a glass transition temperature of 115 °C or more, measured as described in the description; and a third copolymer comprising units derived from an aromatic vinyl-based monomer and units derived from a vinyl cyan -based monomer, wherein the second copolymer has a linear shape, and the third copolymer has a branched shape and a branched degree of 2 to 8, measured as described in the description.
A cannula system (1, 14) for accessing a target site in the body of a patient, said cannula system comprising: a cannula tube (2, 15) having a distal end (2d, 15d) and a proximal end (2p, 15p), and a lumen (7, 19) extending from said proximal end (2p, 15p) to said distal end (2d, 15d), a central longitudinal axis (2L, 15L) defined by the lumen (7, 19), and a luminal surface (8, 20) on an inner wall of said cannula tube (2, 15); and a light source disposed proximate the proximal end (2p, 15p) of the cannula tube (2, 15), said light source configured to project light into the lumen (7, 19) of the cannula tube (2, 15); wherein the cannula tube comprises an opaque material, non-transmissive to visible light; characterized in that the luminal surface (8, 20) has an Average Roughness of about 0.2 microns (8 micro-inches) or smoother. a cannula tube (2, 15) having a distal end (2d, 15d) and a proximal end (2p, 15p), and a lumen (7, 19) extending from said proximal end (2p, 15p) to said distal end (2d, 15d), a central longitudinal axis (2L, 15L) defined by the lumen (7, 19), and a luminal surface (8, 20) on an inner wall of said cannula tube (2, 15); and a light source disposed proximate the proximal end (2p, 15p) of the cannula tube (2, 15), said light source configured to project light into the lumen (7, 19) of the cannula tube (2, 15); wherein the cannula tube comprises an opaque material, non-transmissive to visible light; characterized in that the luminal surface (8, 20) has an Average Roughness of about 0.2 microns (8 micro-inches) or smoother.
An electro-mechanical actuator, EMA, comprising: a ball nut piston; and characterised by: an endcap coupled to the ball nut piston, the endcap comprising a convex dome in a center of the endcap; a retaining ring (240; 440) coupled to the endcap; and a puck comprising a contact plate and a base located adjacent to the convex dome, wherein the contact plate is configured to contact a brake stack, wherein the base of the puck comprises a concave surface, wherein the base is located within the retaining ring (240; 440), wherein the puck is pivotable about the convex dome, and wherein a diameter of the base is greater than a diameter of a lip (343; 447; 448) of the retaining ring (240; 440). an endcap coupled to the ball nut piston, the endcap comprising a convex dome in a center of the endcap; a retaining ring (240; 440) coupled to the endcap; and a puck comprising a contact plate and a base located adjacent to the convex dome, wherein the contact plate is configured to contact a brake stack, wherein the base of the puck comprises a concave surface, wherein the base is located within the retaining ring (240; 440), wherein the puck is pivotable about the convex dome, and wherein a diameter of the base is greater than a diameter of a lip (343; 447; 448) of the retaining ring (240; 440).
Method for manufacturing a fibrous web, such as web of paper, board, tissue or the like, the method comprising (a) obtaining at least one fibre suspension of lignocellulosic and/or cellulosic fibres, (b) feeding the fibre suspension into an intermediate residence entity, such as pulper, storage tower or broke tower, (c) discharging fibre suspension, which comprises bacterial endospores, out of the intermediate residence entity via an outlet after a residence time of at least 2 hours in the intermediate residence entity, (d) forming after a time delay the fibre suspension into a fibrous web, wherein bacterial endospores are sensitised by adding a germinant surfactant, which is selected from n-dodecylamine or n-dodecylguanidine, dodecylamine salt or dodecylguanidine salt, such as dodecylguanidine hydrochloride, or any of their mixtures, to the fibre suspension at an addition point, which is located i) at the lower part of the intermediate residence entity, located under the horizontal line that divides the intermediate residence entity into two parts of equal height, drawn between the bottom and the upper end of the intermediate residence entity, or ii) at or after the outlet of the intermediate residence entity, but before the formation of the fibrous web, and wherein the time delay between the addition of the germinant surfactant and the formation of the fibrous web is at least 15 min and less than 8 hours, when there is at least one intermediate residence entity between the addition point and the fibrous web formation. (a) obtaining at least one fibre suspension of lignocellulosic and/or cellulosic fibres, (b) feeding the fibre suspension into an intermediate residence entity, such as pulper, storage tower or broke tower, (c) discharging fibre suspension, which comprises bacterial endospores, out of the intermediate residence entity via an outlet after a residence time of at least 2 hours in the intermediate residence entity, (d) forming after a time delay the fibre suspension into a fibrous web, bacterial endospores are sensitised by adding a germinant surfactant, which is selected from n-dodecylamine or n-dodecylguanidine, dodecylamine salt or dodecylguanidine salt, such as dodecylguanidine hydrochloride, or any of their mixtures, to the fibre suspension at an addition point, which is located i) at the lower part of the intermediate residence entity, located under the horizontal line that divides the intermediate residence entity into two parts of equal height, drawn between the bottom and the upper end of the intermediate residence entity, or ii) at or after the outlet of the intermediate residence entity, but before the formation of the fibrous web, and wherein the time delay between the addition of the germinant surfactant and the formation of the fibrous web is at least 15 min and less than 8 hours, when there is at least one intermediate residence entity between the addition point and the fibrous web formation.
A method for inverse tone mapping of at least a part of an image comprising: - obtaining a first expansion exponent map (E(p)) for said image; - determining, for at least a pixel (p) of the image, an expanded luminance value (Yexp(p)) by performing an exponentiation with an expansion exponent value determined from said first expansion exponent map (E(p)) on a luminance value (Y(p)) of said pixel (p), Z the method characterised by further comprising: - obtaining, for said pixel (p) of the image, an expansion correcting value ( p bright.M bright ( p)) by using a modulating function ( M bright ( p)) that takes as input a value Y base p 255 representative of the luminance of said pixel (p) and is an increasing function whose increase is higher for higher input values; - obtaining a corrected expansion exponent value for said pixel by subtracting said expansion correcting value ( p bright.M bright ( p)) from the expansion exponent value ( E ( p)) of the first expansion exponent map (E(p)); and - determining, for said pixel (p) of the image, an expanded luminance value (Yexp(p)) by performing an exponentiation with said corrected expansion exponent value on the luminance value (Y(p)) of said pixel (p). - obtaining a first expansion exponent map (E(p)) for said image; - determining, for at least a pixel (p) of the image, an expanded luminance value (Yexp(p)) by performing an exponentiation with an expansion exponent value determined from said first expansion exponent map (E(p)) on a luminance value (Y(p)) of said pixel (p), Z the method characterised by further comprising: - obtaining, for said pixel (p) of the image, an expansion correcting value ( p bright.M bright ( p)) by using a modulating function ( M bright ( p)) that takes as input a value Y base p 255 representative of the luminance of said pixel (p) and is an increasing function whose increase is higher for higher input values; - obtaining a corrected expansion exponent value for said pixel by subtracting said expansion correcting value ( p bright.M bright ( p)) from the expansion exponent value ( E ( p)) of the first expansion exponent map (E(p)); and - determining, for said pixel (p) of the image, an expanded luminance value (Yexp(p)) by performing an exponentiation with said corrected expansion exponent value on the luminance value (Y(p)) of said pixel (p).
A delivery apparatus for an expandable, implantable medical device, the delivery apparatus comprising: a handle portion (132, 400) including a release mechanism (200, 402) configured to adjust a linear position, relative to a central longitudinal axis (L-L') of the delivery apparatus, of a component of the delivery apparatus, the release mechanism (200, 402) comprising: a threaded drive screw (161, 406) including a helical threaded portion having a lead of at least 2.54 cm (one inch), where the helical threaded portion includes one or more grooves extending around the drive screw (161, 406), the drive screw (161, 406) coupled to the component; and a rotatable knob (136, 404) surrounding and coaxial with the drive screw (161, 406), the knob (136, 404) including one or more teeth arranged at a proximal end of the knob (136, 404), each tooth of the one or more teeth configured to interface with a corresponding groove of the one or more grooves of the drive screw (161, 406), wherein each tooth of the one or more teeth extends from the proximal end, toward a distal end of the knob (136, 404), only a portion of a total distance between the proximal end and the distal end, wherein the portion is less than 1⁄4 the total distance. a threaded drive screw (161, 406) including a helical threaded portion having a lead of at least 2.54 cm (one inch), where the helical threaded portion includes one or more grooves extending around the drive screw (161, 406), the drive screw (161, 406) coupled to the component; and a rotatable knob (136, 404) surrounding and coaxial with the drive screw (161, 406), the knob (136, 404) including one or more teeth arranged at a proximal end of the knob (136, 404), each tooth of the one or more teeth configured to interface with a corresponding groove of the one or more grooves of the drive screw (161, 406), wherein each tooth of the one or more teeth extends from the proximal end, toward a distal end of the knob (136, 404), only a portion of a total distance between the proximal end and the distal end, wherein the portion is less than 1⁄4 the total distance.
A roll forming device for roll forming a roll material strip, comprising at least one roller support that is pivotable about a pivot axis and on which at least one roller (16, 18) is rotatably supported, wherein the pivot axis of the roller support is situated in such a way that it passes through an effective area (24, 26) of the at least one roller (16, 18) in an imaginary straight extension, characterized in that a rotary drive for rotating the at least one roller (16, 18) is provided, and a drive shaft of the rotary drive has a drive shaft axis that is coaxial with respect to the pivot axis.
Laundry machine comprising a user interface and a control unit, wherein said user interface: • is operable by a user to switch on and off the laundry machine, and to select operating settings of the laundry machine among several predefined user-selectable operating settings; and • comprises several light indicators (13,14,15,16) associated, each, with a corresponding predefined user-selectable operating setting; wherein the control unit is configured to turn on a light indicator (13,14,15,16) if the corresponding predefined user-selectable operating setting associated with said light indicator (13,14,15,16) is selected; the laundry machine being characterized in that the control unit is further configured to carry out a start-up procedure in which, upon the switching on of the laundry machine by a user, all the light indicators (13,14,15,16) are turned on. • is operable by a user to switch on and off the laundry machine, and to select operating settings of the laundry machine among several predefined user-selectable operating settings; and • comprises several light indicators (13,14,15,16) associated, each, with a corresponding predefined user-selectable operating setting;
A sensor system configured to detect oxygen in an exhaust stream of an industrial process, the sensor system comprising: a probe with an oxygen-detecting sensor, wherein the oxygen-detecting sensor is configured to detect a concentration of oxygen in the exhaust is configured to output stream and a signal corresponding, at least in part, to the detected concentration of oxygen; a catalytic converter located on the sensor, wherein the catalytic converter is configured to convert carbon monoxide to carbon dioxide; and a signal detector, characterized in that the signal detector is configured to comprise two detection modes, wherein the signal detector is configured in the first mode to detect a change in oxygen concentration indicative of a carbon monoxide breakthrough based on the signal from the oxygen-detecting sensor, and in the second mode to detect a change in oxygen concentration indicative of a carbon monoxide breakthrough based on a derivative of an oxygen sensor signal response. a probe with an oxygen-detecting sensor, wherein the oxygen-detecting sensor is configured to detect a concentration of oxygen in the exhaust is configured to output stream and a signal corresponding, at least in part, to the detected concentration of oxygen; a catalytic converter located on the sensor, wherein the catalytic converter is configured to convert carbon monoxide to carbon dioxide; and a signal detector, characterized in that the signal detector is configured to comprise two detection modes, wherein the signal detector is configured in the first mode to detect a change in oxygen concentration indicative of a carbon monoxide breakthrough based on the signal from the oxygen-detecting sensor, and in the second mode to detect a change in oxygen concentration indicative of a carbon monoxide breakthrough based on a derivative of an oxygen sensor signal response.
An assemblable and diassemblable toilet set, comprising a toilet body of which the upper end is provided with a supporting toilet mounting and a toilet cover plate of which the rear end is provided with a pivot shaft, the supporting toilet mounting is provided with an embedding hole and the pivot shaft is provided with an inserting column, the inserting column is embedded into the embedding hole, wherein the pivot shaft comprises an axial damper arranged horizontally, a connector coaxially connected with the axial damper, a locking component, and a shell body arranged to place the connector and the locking component, the inserting column is arranged on the connector vertically and penetrates out from the shell body, and the inserting column is locked and secured in the embedding hole through the locking component, wherein the locking component comprises a locking button and an elastic element, a first clamping groove is arranged on the top of the connector horizontally, a clamping hook capable of being clamped in the first clamping groove is arranged on the top of the locking button horizontally, a slot is arranged on the bottom of the connector horizontally, a convex column is arranged on the supporting toilet mounting, the embedding hole is arranged in the convex column and the elastic element is arranged between the connector and the locking button, characterized in that a leg extending into the slot is arranged on the bottom of the locking button horizontally, a through hole is arranged on the leg vertically, the inserting column extends out from the through hole, and in that a second clamping groove is arranged on the convex column circularly, the edge of the through hole near the axial damper is clamped in the second clamping groove.
A method of using a binary logic circuit to perform an interpolation calculation between two endpoint values E 0 and E 1 using a weighting index i for generating an interpolated result P, the values E 0 and E 1 being formed from Adaptive Scalable Texture Compression (ASTC) colour endpoint values C 0 and C 1 respectively, the colour endpoint values C 0 and C 1 being low-dynamic range or high dynamic range values, the method comprising: performing at an interpolation unit of the binary logic circuit an interpolation between the colour endpoint values C 0 and C 1 using the weighting index i to generate a first intermediate interpolated result C 2; receiving at combination logic circuitry of the binary logic circuit the interpolated result C 2 and performing one or more logical processing operations to calculate the interpolated result P according to the equation: P = └(( C 2 ≪ 8) + C 2 + 32)/64┘ when the interpolated result is not to be compatible with an sRGB colour space and the colour endpoint values are LDR values; P = └(( C 2 ≪ 8) + 128.64 + 32)/64 ┘(( C 2 ≪ 8) + 128.64 + 32)/64 when the interpolated result is to be compatible with an sRGB colour space and the colour endpoint values are LDR values; and P = ( C 2 + 2) ≫ 2 when the colour endpoint values are HDR values. performing at an interpolation unit of the binary logic circuit an interpolation between the colour endpoint values C 0 and C 1 using the weighting index i to generate a first intermediate interpolated result C 2; receiving at combination logic circuitry of the binary logic circuit the interpolated result C 2 and performing one or more logical processing operations to calculate the interpolated result P according to the equation: P = └(( C 2 ≪ 8) + C 2 + 32)/64┘ when the interpolated result is not to be compatible with an sRGB colour space and the colour endpoint values are LDR values; P = └(( C 2 ≪ 8) + 128.64 + 32)/64 ┘(( C 2 ≪ 8) + 128.64 + 32)/64 when the interpolated result is to be compatible with an sRGB colour space and the colour endpoint values are LDR values; and P = ( C 2 + 2) ≫ 2 when the colour endpoint values are HDR values.
Exhaust gas denitration equipment for a reciprocating engine, comprising an evaporation unit that sprays a reducing agent into exhaust gas discharged from a reciprocating engine through an exhaust-air receiver tank, a reaction unit in which the exhaust gas containing the sprayed reducing agent is brought into contact with a catalytic unit and is fed into a turbine unit of a supercharger, a bypass pipe that can be opened or closed so as to directly supply exhaust gas from the reciprocating engine to the turbine unit of the supercharger, and a purge air supply device that sprays purge air into the reaction unit, when exhaust gas is directly introduced to the supercharger from the bypass pipe, characterized in that the denitration equipment further comprises a scavenging air receiver tank that receives combustion air from an air outlet port of a compressor unit of the supercharger, the combustion air being cooled through an intermediate air cooler, the scavenging air receiver tank is connected to an inlet pipe that extracts part of the combustion air as the purge air, the inlet pipe has a heat transfer pipe for heating the purge air, and the heat transfer pipe is provided in the exhaust-air receiver tank.