mhurhangee/ep-ind-claims huggingface dataset:
An integrated gasification combined cycle comprising: a gasification unit; a combined power generation unit where gas produced by the gasification unit is used as fuel and a gas turbine and a steam turbine are rotated using the fuel gas produced by the gasification unit to generate power; and a control system that performs a feed-forward control of the gasification unit to produce the fuel gas by the gasification unit with production rate required in the combined power generation unit according to a power load required in the combined power generation unit, characterized in that the control system is provided with a dead time compensator that delays the power load required in the combined power generation unit on the supposition that a lag and a dead time are present in the gasification unit so that the combined power generation unit is operated while the follow-up is performed with a predetermined delay, and in that the dead time compensator is provided between the power load controller which controls the combined power generation unit and the power load setting device where the power load required is set. a gasification unit; a combined power generation unit where gas produced by the gasification unit is used as fuel and a gas turbine and a steam turbine are rotated using the fuel gas produced by the gasification unit to generate power; and a control system that performs a feed-forward control of the gasification unit to produce the fuel gas by the gasification unit with production rate required in the combined power generation unit according to a power load required in the combined power generation unit, characterized in that the control system is provided with a dead time compensator that delays the power load required in the combined power generation unit on the supposition that a lag and a dead time are present in the gasification unit so that the combined power generation unit is operated while the follow-up is performed with a predetermined delay, and in that the dead time compensator is provided between the power load controller which controls the combined power generation unit and the power load setting device where the power load required is set.
A nickel-based superalloy comprising, in weight percent, 5.9 to 6.5% aluminum, 9.5 to 10.5% cobalt, 4 to 5% chromium, 0.1 to 0.2% hafnium, 0.3 to 0.7% molybdenum, 3.7 to 4.5% rhenium, 7.5 to 8.5% tantalum, 0.2 to 0.7% titanium, 3.2 to 4% tungsten, 0 to 0.1% silicon, the balance consisting of nickel and unavoidable impurities.
A compound of Formula I or a stereoisomer, tautomer, racemic, salt, hydrate, solvate, or isotope thereof, wherein R 1 is halogen; R 2 and R 3 taken together with the N atom to which they are attached, represent a 5-10 membered mono- or bicyclic heterocyclic moiety; which may further be optionally substituted with a substituent selected from the list comprising: -C 1-20 alkyl, and -C(=O)Ra; each of these further optionally substituted with one or more substituents selected from the list comprising a fluorescent moiety, - C 3-20 heterocyclyl, and -carboxy; R 4, R 5, R 6 and R 7 are each -H; R 8 is selected from the list comprising a fluorescent moiety, -C 1-20 alkyl, and -C 3-20 cycloalkyl; X and Y are each independently selected from C and N; wherein at least one of said X and Y is N; wherein when X is N then R 7 is absent. R 1 is halogen; R 2 and R 3 taken together with the N atom to which they are attached, represent a 5-10 membered mono- or bicyclic heterocyclic moiety; which may further be optionally substituted with a substituent selected from the list comprising: -C 1-20 alkyl, and -C(=O)Ra; each of these further optionally substituted with one or more substituents selected from the list comprising a fluorescent moiety, - C 3-20 heterocyclyl, and -carboxy; R 4, R 5, R 6 and R 7 are each -H; R 8 is selected from the list comprising a fluorescent moiety, -C 1-20 alkyl, and -C 3-20 cycloalkyl; X and Y are each independently selected from C and N; wherein at least one of said X and Y is N; wherein when X is N then R 7 is absent.
A guiding fin assembly adapted to be connected to a projectile, comprising: a rear main unit adapted to be connected at its rear end to a front end of said projectile, said rear main unit having a central longitudinal axis; a front unit assembly, comprising a front unit element, rotatably connected at its rear end to the front end of said rear main unit and adapted to rotate about said central longitudinal axis; a relative speed control unit operable between said rear main unit and said front main unit and capable of providing spin braking force to slow the relative speed of rotation of said front unit element, wherein said braking force is controllable; two guiding fins (304A, 304B) pivotally connected by pivots (305A, 305B) respectively to said guiding fin front unit assembly; wherein each of said guiding fins is shaped as a flat aerodynamic element having a fin chord extending from said front end of the fin to said rear end of said fin and residing in a plane parallel to said central longitudinal axis, said chord of said fin forming a pitch angle with said central longitudinal axis in said plane parallel to said central longitudinal axis; characterized in that the guiding fin assembly further comprises two return springs (306A, 306B), each spring being operably connected to a respective guiding fin, wherein said springs (306A, 306B) are configured to allow movement correspondingly to aerodynamic pressure on said fins, and wherein said pitch angle is controllable by said springs (306A, 306B). a rear main unit adapted to be connected at its rear end to a front end of said projectile, said rear main unit having a central longitudinal axis; a front unit assembly, comprising a front unit element, rotatably connected at its rear end to the front end of said rear main unit and adapted to rotate about said central longitudinal axis; a relative speed control unit operable between said rear main unit and said front main unit and capable of providing spin braking force to slow the relative speed of rotation of said front unit element, wherein said braking force is controllable; two guiding fins (304A, 304B) pivotally connected by pivots (305A, 305B) respectively to said guiding fin front unit assembly; wherein each of said guiding fins is shaped as a flat aerodynamic element having a fin chord extending from said front end of the fin to said rear end of said fin and residing in a plane parallel to said central longitudinal axis, said chord of said fin forming a pitch angle with said central longitudinal axis in said plane parallel to said central longitudinal axis; characterized in that the guiding fin assembly further comprises two return springs (306A, 306B), each spring being operably connected to a respective guiding fin, wherein said springs (306A, 306B) are configured to allow movement correspondingly to aerodynamic pressure on said fins, and wherein said pitch angle is controllable by said springs (306A, 306B).
Liquid-crystalline medium, characterised in that it comprises one or more compounds of the formula 1, and one or more compounds of the formula 2, and one or more compounds selected from formulae 3, 4 and 5, in which the individual radicals, in each case independently of one another and identically or differently on each occurrence, have the following meanings: alkenyl denotes C 2-6 -alkenyl, R x denotes C 1-6 -alkyl or C 2-6 -alkenyl, alkyl and alkyl* in each case, independently of one another, denote C 1-6 -alkyl, L denotes H or F, alk(en)yl* denotes C 1-6 -alkyl or C 2-6 -alkenyl, and it additionally comprises one or more compounds selected from the formulae XV and XVI, in which R 0, X 0 and Y 1-4 have the meanings indicated in Claim 9, in each case, independently of one another, denote and denotes and it additionally comprises one or more compounds of the formula XXX, in which R 0, X 0 and Y 1-4 have the meanings indicated in Claim 9, and the medium comprises at least three compounds of the formula PGP-n-m and/or PGP-n-2V, in which n and m in each case, independently of one another, denote 2, 3, 4 or 5. alkenyl denotes C 2-6 -alkenyl, R x denotes C 1-6 -alkyl or C 2-6 -alkenyl, alkyl and alkyl* in each case, independently of one another, denote C 1-6 -alkyl, L denotes H or F, alk(en)yl* denotes C 1-6 -alkyl or C 2-6 -alkenyl,
Method for operating a plant complex which comprises a blast furnace for producing pig iron, a converter steel mill, a power-generating plant and a biotechnological plant, a) wherein at least a partial amount of the blast-furnace top gas occurring in the production of pig iron in the blast furnace and/or a partial amount of the converter gas occurring in the production of crude steel is used as a useful gas for operating the power-generating plant and the biotechnological plant, b) wherein externally obtained electricity and power-generating plant electricity, which is produced by the power-generating plant of the plant complex, is used to cover the electricity demand of the plant complex, c) wherein the proportion of electricity accounted for by the externally obtained electricity with respect to the overall electricity demand of the plant complex is established as a variable process parameter and the amount of useful gas fed to the power-generating process is established in dependence on this process parameter, d) wherein the part of the useful gas that is not used for electricity generation is fed to the biotechnological plant after a gas-conditioning operation and is used for biochemical fermentation processes. a) wherein at least a partial amount of the blast-furnace top gas occurring in the production of pig iron in the blast furnace and/or a partial amount of the converter gas occurring in the production of crude steel is used as a useful gas for operating the power-generating plant and the biotechnological plant, b) wherein externally obtained electricity and power-generating plant electricity, which is produced by the power-generating plant of the plant complex, is used to cover the electricity demand of the plant complex, c) wherein the proportion of electricity accounted for by the externally obtained electricity with respect to the overall electricity demand of the plant complex is established as a variable process parameter and the amount of useful gas fed to the power-generating process is established in dependence on this process parameter, d) wherein the part of the useful gas that is not used for electricity generation is fed to the biotechnological plant after a gas-conditioning operation and is used for biochemical fermentation processes.
A platinum complex of Formula: or a salt thereof, wherein: X 1 is F, Cl, Br, or I; X 2 is F, Cl, Br, or I; each instance of R N1 and R N2 is independently hydrogen, optionally substituted C 1-6 alkyl, or a nitrogen protecting group; or two R N1 are taken with the intervening atoms to form a heterocyclic ring; or two R N2 are taken with the intervening atoms to form a heterocyclic ring; or R N1 and R N2 are taken with the intervening atoms to form a heterocyclic ring; optionally wherein both R N1 and R N2 are hydrogen; and n is 1, 2, 3, 4, 5, or 6; optionally wherein the platinum complex is of Formula: or a salt thereof, optionally wherein the platinum complex is of Formula ( II-a): or a salt thereof. X 1 is F, Cl, Br, or I; X 2 is F, Cl, Br, or I; each instance of R N1 and R N2 is independently hydrogen, optionally substituted C 1-6 alkyl, or a nitrogen protecting group; or two R N1 are taken with the intervening atoms to form a heterocyclic ring; or two R N2 are taken with the intervening atoms to form a heterocyclic ring; or R N1 and R N2 are taken with the intervening atoms to form a heterocyclic ring; optionally wherein both R N1 and R N2 are hydrogen; and n is 1, 2, 3, 4, 5, or 6; optionally wherein the platinum complex is of Formula: or a salt thereof, optionally wherein the platinum complex is of Formula ( II-a): or a salt thereof.
Outdoor seating furniture that has at least one seating element arranged on a frame with a seat surface and a reverse side, wherein the seat surface is oriented downwards in a basic state and the seat surface is oriented upwards in a functional state, wherein the seating element is pivotably mounted around the longitudinal axis of a transverse strut of the frame as part of a pivot bearing and is stabilized by the force of gravity, spring force, magnetic force and/or an electromechanical actuator in the basic state, characterized in that at least one backrest element situated on the frame is pivotably mounted around the longitudinal axis of an additional strut that is parallel to the transverse strut.
A pneumatic tire comprising: a pair of bead portions with a bead core embedded therein, a carcass extending between the pair of bead portions, and a bead apex rubber disposed in each of the bead portions and extending radially outwardly from the bead core therein, and a bead reinforcing cord layer disposed in each of the bead portions and composed of a ply of cords, wherein the carcass comprises a first carcass ply extending between the bead portions and turned up around the bead core in each of the bead portions from the axially inside to the axially outside so as to have a pair of turned-up portions and a main portion therebetween, the bead apex rubber has a radially outer edge at a radial height of from 15% to 25% of a tire section height, each height measured radially outwardly from the bead base line, the bead reinforcing cord layer comprises an axially inner first part disposed on the axially outside of the main portion of the first carcass ply, and an axially outer second part disposed on the axially inside of the turned-up portion of the first carcass ply and extending from the axially inner first part through a radially inner side of the bead core, characterized in that the axially outer second part has a radially outer edge which is radially outwardly spaced apart from the radially outer edge of the turned-up portion by at least 5 mm in a radial direction of the tire. a pair of bead portions with a bead core embedded therein, a carcass extending between the pair of bead portions, and a bead apex rubber disposed in each of the bead portions and extending radially outwardly from the bead core therein, and a bead reinforcing cord layer disposed in each of the bead portions and composed of a ply of cords, wherein the carcass comprises a first carcass ply extending between the bead portions and turned up around the bead core in each of the bead portions from the axially inside to the axially outside so as to have a pair of turned-up portions and a main portion therebetween, the bead apex rubber has a radially outer edge at a radial height of from 15% to 25% of a tire section height, each height measured radially outwardly from the bead base line, the bead reinforcing cord layer comprises an axially inner first part disposed on the axially outside of the main portion of the first carcass ply, and an axially outer second part disposed on the axially inside of the turned-up portion of the first carcass ply and extending from the axially inner first part through a radially inner side of the bead core, an axially inner first part disposed on the axially outside of the main portion of the first carcass ply, and an axially outer second part disposed on the axially inside of the turned-up portion of the first carcass ply and extending from the axially inner first part through a radially inner side of the bead core, characterized in that the axially outer second part has a radially outer edge which is radially outwardly spaced apart from the radially outer edge of the turned-up portion by at least 5 mm in a radial direction of the tire.
A line intended to be submerged in an aquatic environment, which comprises: • a mooring configured to be placed on the bottom of the aquatic environment and for immobilizing the line relative to the bottom, • a buoy configured to float on the surface of the aquatic environment, • an object extending along a vertical axis, having a center of balance of hydrodynamic forces when the object is subjected to a horizontal water current and called the hydrodynamic center, and having a center of gravity vertically remote from the hydrodynamic center, • a frame connected to the object by a pivoting link with a substantially horizontal axis passing through the hydrodynamic center, • at least one fin (52, 54) extending vertically, whereby the object can be oriented relative to a horizontal water current, the at least one fin (52, 54) being secured to the frame, • a first section of line connecting the mooring to the frame, • a second section of line connecting the frame to the buoy. • a mooring configured to be placed on the bottom of the aquatic environment and for immobilizing the line relative to the bottom, • a buoy configured to float on the surface of the aquatic environment, • an object extending along a vertical axis, having a center of balance of hydrodynamic forces when the object is subjected to a horizontal water current and called the hydrodynamic center, and having a center of gravity vertically remote from the hydrodynamic center, • a frame connected to the object by a pivoting link with a substantially horizontal axis passing through the hydrodynamic center, • at least one fin (52, 54) extending vertically, whereby the object can be oriented relative to a horizontal water current, the at least one fin (52, 54) being secured to the frame, • a first section of line connecting the mooring to the frame, • a second section of line connecting the frame to the buoy.
An imaging scanner comprising: an imaging array (Q; 110); the imaging array (Q; 110) comprising a first imaging region (Q; 120) for rendering a view of a first scan volume and a second imaging region (Q; 122) for rendering a view of a second scan volume, wherein the first imaging region (Q1; 120) has a field of vision that is distinct from a field of vision of the second imaging region (Q2; 122); the imaging array (Q; 110) and consequently the first imaging region (Q; 120) and the second imaging region (Q; 122) being two-dimensional and having respective two-dimensional fields of vision; characterized by a first plurality of mirrors (140, 150) for directing light from the first scan volume onto the first imaging region (Q1; 120) of the imaging array (Q; 110); and a second plurality of mirrors (142, 152) separate from the first plurality of mirrors (140, 150) for directing light from the second scan volume onto the second imaging region (Q2; 122) of the imaging array (Q; 110). an imaging array (Q; 110); the imaging array (Q; 110) comprising a first imaging region (Q; 120) for rendering a view of a first scan volume and a second imaging region (Q; 122) for rendering a view of a second scan volume, wherein the first imaging region (Q1; 120) has a field of vision that is distinct from a field of vision of the second imaging region (Q2; 122); the imaging array (Q; 110) and consequently the first imaging region (Q; 120) and the second imaging region (Q; 122) being two-dimensional and having respective two-dimensional fields of vision; characterized by a first plurality of mirrors (140, 150) for directing light from the first scan volume onto the first imaging region (Q1; 120) of the imaging array (Q; 110); and a second plurality of mirrors (142, 152) separate from the first plurality of mirrors (140, 150) for directing light from the second scan volume onto the second imaging region (Q2; 122) of the imaging array (Q; 110).
A crystal of a compound of formula characterized by diffraction peaks expressed by 2θ values at 7.86°, 19.09°, 21.80°, 23.87°, 26.00°, and 28.12° in an X-ray powder diffraction spectrum,
An acrylic rubber composition comprising 5 to 12.5 parts by weight of silica and 5 to 15 parts by weight of graphite as fillers, based on 100 parts by weight of ultracold-resistant acrylic rubber having a glass transition point Tg of -42°C or lower.
Induction cooking hob with illumination equipment, comprising: a cover element arranged at the top side of the induction cooking hob and including at least one heating zone, a chassis arranged below the cover element and at least one induction coil unit having an induction coil, said induction coil unit being arranged below the at least one heating zone, wherein a light emitting diode is mounted to the center of the at least one induction coil unit, characterised in that thermal conductive contact between the light emitting diode and the chassis is provided by a spring element pressing at least a surface of the light emitting diode onto the chassis.
A method of manufacturing a cleaning or sampling instrument in the natural or artificial bodily cavity of a human or animal body of the stem type each end of which has a flexible terminating bulb or comprising a succession of strips with each bulb being formed of the superpositioning of two half-bulbs articulating with one another by a hinge or and assembled by the overlapping and immobilization of their ends by which they are connected to the corresponding end of the stem, wherein: - a basic structure having two end groups of two half-bulbs (10, 11) or (12, 13) opened flat, each borne by a part of a swiveling tab mold or, is formed by the injection of a first material into a mold, - a link between the two end groups is formed by the injection of this first material into an interconnecting channel, in such a way as to form the entire basic structure by folding down the two swiveling tabs and supporting the two half-bulbs of each end group, - the assembly ends of each of the corresponding half-bulb are engaged in each other to close the half-bulbs of each bulb thus forming the complete end bulbs and, characterized in that: - the mold is modified to enlarge the interconnecting channel and form peripheral cavities or chambers and at the connections between the ends of stem and the end bulbs, and spaces for the forming of a peripheral extra thickness at each end, - a second material is injected to form the stem and by extension on and beyond the ends of the stem and on the assembled half-bulbs ends of each end bulb by the second material a strengthening extra thickness forming an attaching and strengthening burr or ring and designed to reinforce the connection between the end of stem and each end bulb and. - a basic structure having two end groups of two half-bulbs (10, 11) or (12, 13) opened flat, each borne by a part of a swiveling tab mold or, is formed by the injection of a first material into a mold, - a link between the two end groups is formed by the injection of this first material into an interconnecting channel, in such a way as to form the entire basic structure by folding down the two swiveling tabs and supporting the two half-bulbs of each end group, - the assembly ends of each of the corresponding half-bulb are engaged in each other to close the half-bulbs of each bulb thus forming the complete end bulbs and, characterized in that: - the mold is modified to enlarge the interconnecting channel and form peripheral cavities or chambers and at the connections between the ends of stem and the end bulbs, and spaces for the forming of a peripheral extra thickness at each end, - a second material is injected to form the stem and by extension on and beyond the ends of the stem and on the assembled half-bulbs ends of each end bulb by the second material a strengthening extra thickness forming an attaching and strengthening burr or ring and designed to reinforce the connection between the end of stem and each end bulb and.