mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated controller for motion control and motor control, the integrated controller comprising: a first processor configured to run an operating system and at least perform motion control, wherein the motion control comprises calculating set values of kinematic pairs of a controlled object at each moment; a second processor configured to at least perform motor control, wherein the motor control comprises controlling rotation of motors according to the set values, which at least comprises any one or a combination of motor current loop control, motor speed loop control, and motor position loop control; wherein, the second processor runs the same operating system as the first processor at start-up, then the second processor is turned off and re-started and re-configured to run a different operating system than the first processor or not to run any operating systems after start-up; a cache coupled to the first processor and the second processor; a shared memory , which is a dedicated cacheable memory block with fixed addresses specified by the operating system run on the first processor; wherein, the shared memory maps onto the cache; the first processor and the second processor are configured to share the shared memory and accordingly perform data transmission via the cache during the periods of motion control and motor control; the first processor , the second processor and the cache are integrated in a same chip. a first processor configured to run an operating system and at least perform motion control, wherein the motion control comprises calculating set values of kinematic pairs of a controlled object at each moment; a second processor configured to at least perform motor control, wherein the motor control comprises controlling rotation of motors according to the set values, which at least comprises any one or a combination of motor current loop control, motor speed loop control, and motor position loop control; wherein, the second processor runs the same operating system as the first processor at start-up, then the second processor is turned off and re-started and re-configured to run a different operating system than the first processor or not to run any operating systems after start-up; a cache coupled to the first processor and the second processor; a shared memory , which is a dedicated cacheable memory block with fixed addresses specified by the operating system run on the first processor; wherein, the shared memory maps onto the cache; the first processor and the second processor are configured to share the shared memory and accordingly perform data transmission via the cache during the periods of motion control and motor control; the first processor , the second processor and the cache are integrated in a same chip.
A method of designing a meta optical device , the method comprising: setting, via a processor, design data for arrangement and dimensions of a nanostructure (NS) of the meta optical device , according to a function to be implemented by the meta optical device , wherein the dimensions are lengths in one direction in a three-dimensional space; obtaining a phase change graph with respect to a change in one of the dimensions; determining a shape dimension region with phase defect in the phase change graph, the shape dimension region with phase defect corresponding to a region where a sign of a slope in the phase change graph reverses; and substituting in the design data a value of the one of the dimensions with phase defect which is included in the shape dimension region with phase defect with a substitution value that is outside the shape dimension region with phase defect. setting, via a processor, design data for arrangement and dimensions of a nanostructure (NS) of the meta optical device , according to a function to be implemented by the meta optical device , wherein the dimensions are lengths in one direction in a three-dimensional space; obtaining a phase change graph with respect to a change in one of the dimensions; determining a shape dimension region with phase defect in the phase change graph, the shape dimension region with phase defect corresponding to a region where a sign of a slope in the phase change graph reverses; and substituting in the design data a value of the one of the dimensions with phase defect which is included in the shape dimension region with phase defect with a substitution value that is outside the shape dimension region with phase defect.
A connector with a grommet comprising: a housing including a panel hooking portion that is suitable for being hooked on an edge of a mounting hole of a panel and is suitable for being locked to the edge , an annular flange that faces the edge , and a locking projection that is suitable for being locked to the panel by sandwiching the panel between the locking projection and the flange , wherein the panel hooking portion , the flange , and the locking projection are formed on an outside of the housing ; and a grommet including a panel contact part that is fitted into the flange so as to cover the flange and suitable for coming into tight contact with the edge , wherein a flexible arm extending forward is formed on the flange so as to protrude from the flange , the locking projection is provided at a front of the flexible arm , a sensing part configured to sense whether the locking projection is locked to the panel , is provided at a rear of the flexible arm so as to protrude outward than the flange , characterized in that the sensing part is always received in a receiving part formed on the panel contact part , and the sensing part and the receiving part tilt when the locking projection is not locked to the panel . a housing including a panel hooking portion that is suitable for being hooked on an edge of a mounting hole of a panel and is suitable for being locked to the edge , an annular flange that faces the edge , and a locking projection that is suitable for being locked to the panel by sandwiching the panel between the locking projection and the flange , wherein the panel hooking portion , the flange , and the locking projection are formed on an outside of the housing ; and a grommet including a panel contact part that is fitted into the flange so as to cover the flange and suitable for coming into tight contact with the edge , wherein a flexible arm extending forward is formed on the flange so as to protrude from the flange , the locking projection is provided at a front of the flexible arm , a sensing part configured to sense whether the locking projection is locked to the panel , is provided at a rear of the flexible arm so as to protrude outward than the flange , characterized in that the sensing part is always received in a receiving part formed on the panel contact part , and the sensing part and the receiving part tilt when the locking projection is not locked to the panel .
A method for manufacturing a water purifying material, comprising: adding caustic soda to a solution, which is prepared by combining a waste liquid discharged from a manufacturing process of polyferric sulfate and a waste liquid discharged from a pickling process relating to the steel industry, containing 100 to 200 mg/L of bivalent iron, 20 to 100 mg/L of titanium ions, 5 to 50 mg/L of magnesium, and 3 to 30 mg/L of silica under conditions of 30 to 50°C and pH 6.8 to 7.2 to carry out neutralization and reaction; separating and collecting an obtained solid at 100°C or less; and drying the collected solid. adding caustic soda to a solution, which is prepared by combining a waste liquid discharged from a manufacturing process of polyferric sulfate and a waste liquid discharged from a pickling process relating to the steel industry, containing 100 to 200 mg/L of bivalent iron, 20 to 100 mg/L of titanium ions, 5 to 50 mg/L of magnesium, and 3 to 30 mg/L of silica under conditions of 30 to 50°C and pH 6.8 to 7.2 to carry out neutralization and reaction; separating and collecting an obtained solid at 100°C or less; and drying the collected solid.
A building material comprising: a base material that has a design surface on a surface thereof; a coating that is formed on the design surface; and a protective sheet affixed to the coating so as to be peelable, characterised in that the coating has as a surface having a 60-degree specular gloss of 80 or greater; the coating has a pencil hardness of HB or higher, and wherein an adhesive force between the coating and the protective sheet is 2 to 8 N/20 mm, so as to prevent peeling-off of the protective sheet during storage and transport of the building material and to prevent degradation of the surface finish of the coating when the protective sheet is peeled off. a base material that has a design surface on a surface thereof; a coating that is formed on the design surface; and a protective sheet affixed to the coating so as to be peelable, characterised in that the coating has as a surface having a 60-degree specular gloss of 80 or greater; the coating has a pencil hardness of HB or higher, and wherein an adhesive force between the coating and the protective sheet is 2 to 8 N/20 mm, so as to prevent peeling-off of the protective sheet during storage and transport of the building material and to prevent degradation of the surface finish of the coating when the protective sheet is peeled off.
Device for measuring imaging properties of an optical system , wherein the device comprises: a test-object holder , which is configured to position the optical system to be tested at a predefined testing position, a rigid holding device , and a plurality of MTF measuring devices , which are arranged at firmly predefinable positions of the holding device such that, by means of each of the MTF measuring devices , a modulation transfer function can be measured at respective different, likewise firmly predefinable, angular positions in the image field of the optical system , characterized in that the holding device comprises at least a first and a second holder , and the plurality of MTF measuring devices comprises a first and a second group of MTF measuring devices , wherein the first holder is configured to hold the MTF measuring devices of the first group at first positions so that the MTF measuring devices of the first group are arranged on a first spherical shell, the second holder is configured to hold the MTF measuring devices of the second group at second positions so that the MTF measuring devices of the second group are arranged on a second spherical shell, wherein the first and the second spherical shells have different radii and are arranged so as to be mutually concentric.
Module for a streetlight , comprising: a system for identifying an orientation of a light sensor , a printed circuit board on which lamps are arranged, a first interface which is arranged on the same side as the lamps , and a second interface on the side facing away from the lamps , wherein each of the interfaces can accommodate the light sensor , wherein the system comprises the light sensor and an information processing unit which is configured to assign the light sensor to a first orientation or to a second orientation based on at least two measurements carried out at different times or on a comparison of relative spectral components, wherein the module is designed such that in the first orientation, directly incident daylight is detected by the light sensor and in the second orientation, reflected light is detected. a system for identifying an orientation of a light sensor , a printed circuit board on which lamps are arranged, a first interface which is arranged on the same side as the lamps , and a second interface on the side facing away from the lamps , wherein each of the interfaces can accommodate the light sensor , wherein the system comprises the light sensor and an information processing unit which is configured to assign the light sensor to a first orientation or to a second orientation based on at least two measurements carried out at different times or on a comparison of relative spectral components, wherein the module is designed such that in the first orientation, directly incident daylight is detected by the light sensor and in the second orientation, reflected light is detected.
A turbine vane assembly for a gas turbine engine comprising a support strut made of metallic material and extending radially relative to an axis, a vane made of ceramic matrix composite material that includes an airfoil arranged around the support strut , and wherein the support strut includes an outer mount panel and a spar that extends radially inward from the outer mount panel and the vane defines a primary gas path adapted to conduct hot gases during use of the turbine vane assembly , the vane includes a radially outer end wall positioned adjacent the outer mount panel, to define an outer boundary of the primary gas path, a radially inner end wall spaced apart radially from the radially outer end wall to define an inner boundary of the primary gas path, and the airfoil that extends radially between and interconnects the radially outer end wall and the radially inner end wall, and arranged around the spar to shield the spar from the gases in the primary gas path, and wherein the spar is configured to couple the turbine vane assembly to a turbine case, and wherein a sleeve located between the support strut and the airfoil and the sleeve engages the support strut and the airfoil , and wherein the sleeve is rigid and includes an attachment surface coupled with the spar and a contact surface that engages an inner surface of the airfoil to transmit force loads acting on the airfoil to the spar and to allow the inner surface of the airfoil to slide continuously and radially relative to the spar in response to relative thermal growth between the spar and the vane during use of the turbine vane assembly , the attachment surface is shaped to match a contour of the spar, and the contact surface is convex, and; wherein the sleeve is located radially at a radial inner end of the airfoil .
A method of preparing an aqueous dispersion of an ethylene-carboxylic acid copolymer, comprising: mixing 30 % by weight or more of an ethylene-(meth)acrylic acid copolymer, a basic compound, and water to form a mixed solution; and adding an inorganic salt compound to the mixed solution, wherein the inorganic salt compound includes at least one of calcium chloride (CaCl 2 ) and sodium sulfite (Na 2 SO 3 ), wherein the inorganic salt compound is added in an amount of 0.01 to 0.3 % by weight based on a total weight of the aqueous dispersion. mixing 30 % by weight or more of an ethylene-(meth)acrylic acid copolymer, a basic compound, and water to form a mixed solution; and adding an inorganic salt compound to the mixed solution, wherein the inorganic salt compound includes at least one of calcium chloride (CaCl 2 ) and sodium sulfite (Na 2 SO 3 ), wherein the inorganic salt compound is added in an amount of 0.01 to 0.3 % by weight based on a total weight of the aqueous dispersion.
A medical tool, comprising: a distal end that is deflectable; at least a pull wire , having a first end coupled to the distal end of the medical tool and configured to be moved for deflecting the distal end; and a deflection assembly, which is coupled to a second end of at least the pull wire and is configured to control a deflection of the distal end, the deflection assembly comprising: a first gear having a first rotation axis; and a second gear , having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, wherein the toothed surface is slanted relative to the second rotation axis, and wherein, when the first gear rotates, the second gear is configured to be rotated by the first gear and to move along the second rotation axis and deflect the distal end by moving the pull wire. a distal end that is deflectable; at least a pull wire , having a first end coupled to the distal end of the medical tool and configured to be moved for deflecting the distal end; and a deflection assembly, which is coupled to a second end of at least the pull wire and is configured to control a deflection of the distal end, the deflection assembly comprising: a first gear having a first rotation axis; and a second gear , having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, a first gear having a first rotation axis; and a second gear , having a second rotation axis, which is parallel to the longitudinal axis of the medical tool, and comprising a toothed surface for integrating with the first gear, wherein the toothed surface is slanted relative to the second rotation axis, and wherein, when the first gear rotates, the second gear is configured to be rotated by the first gear and to move along the second rotation axis and deflect the distal end by moving the pull wire.
A device for tracking brain deformation, comprising: - a processing unit ; and - an interface unit ; wherein the interface unit is adapted to provide a first preoperative 3D representation of a cerebrovascular vessel structure of a region of interest of an object to the processing unit; and to provide a second intraoperative 3D representation of the cerebrovascular vessel structure to the processing unit, at least the second intraoperative 3D representation being based on X-ray image data.; and wherein the processing unit has a register unit adapted to elastically three-dimensionally register at least a part of the first 3D representation with at least a part of the second 3D representation; wherein the processing unit has a determination unit adapted to determine a deformation field of the cerebrovascular vessel structure based on the elastic registration; and wherein the processing unit has an application unit adapted to apply the determined vessel deformation to a brain structure representation to determine a deformation of the cerebral structure, and the application unit is further adapted to apply the determined deformation of the cerebral structure to planning data for an intervention of the cerebral structure to generate deformation adjusted planning data. - a processing unit ; and - an interface unit ;
A method for warming a combined-cycle steam turbine for quick starting the combined-cycle steam turbine wherein the method comprises steps: step S1, operating a gas turbine and a steam turbine (HP, IP, LP) in a turned state; step S2, increasing a rotational speed of the gas turbine to and keeping at m rpm; step S3, introducing warming steam into the steam turbine (HP, IP, LP), increasing the rotational speed of the steam turbine (HP, IP, LP) to and keeping at n rpm, where n<m; step S4, decreasing the rotational speed of the gas turbine , thus a synchro-self-shifting clutch is automatically meshed when the rotational speed of the gas turbine is decreased to n rpm and the rotational speed of the steam turbine (HP, IP, LP) tends to exceed the rotational speed of the gas turbine , step S5, utilizing the steam turbine (HP, IP, LP) to drive the gas turbine and a generator to rotate, so as to start warming up, the steam turbine drives the gas turbine and the generator to keep their rotational speed at p rpm, where p<n; step S6, stopping the introducing warming steam and finishing the warming up when the temperature of an intermediate pressure rotor of the steam turbine reaches a preset temperature, or a warming time reaches a preset time, and then restoring the gas turbine and the steam turbine to the turned state. step S1, operating a gas turbine and a steam turbine (HP, IP, LP) in a turned state; step S2, increasing a rotational speed of the gas turbine to and keeping at m rpm; step S3, introducing warming steam into the steam turbine (HP, IP, LP), increasing the rotational speed of the steam turbine (HP, IP, LP) to and keeping at n rpm, where n<m; step S4, decreasing the rotational speed of the gas turbine , thus a synchro-self-shifting clutch is automatically meshed when the rotational speed of the gas turbine is decreased to n rpm and the rotational speed of the steam turbine (HP, IP, LP) tends to exceed the rotational speed of the gas turbine , step S5, utilizing the steam turbine (HP, IP, LP) to drive the gas turbine and a generator to rotate, so as to start warming up, the steam turbine drives the gas turbine and the generator to keep their rotational speed at p rpm, where p<n; step S6, stopping the introducing warming steam and finishing the warming up when the temperature of an intermediate pressure rotor of the steam turbine reaches a preset temperature, or a warming time reaches a preset time, and then restoring the gas turbine and the steam turbine to the turned state.
A delivery system for targeted delivery of a therapeutically active payload, comprising • an avidin core, wherein the avidin core consists of avidin, neutravidin or streptavidin; • at least one targeting molecule selected from the group consisting of antibody single-chain variable fragments (scFv), • at least one the therapeutically active payload selected from the group consisting of proteins, peptides and therapeutically active nucleic acids, wherein • said at least one targeting molecule and said at least one therapeutically active payload are bound to the avidin core; • said antibody single-chain variable fragment is comprised in a construct, having the structure: antibody single-chain variable fragment - biotinylation acceptor peptide (BAP); or antibody single-chain variable fragment - linker - BAP; and • this construct is mono-biotinylated at the BAP, wherein said BAP is selected from the group consisting of: • • ∘ LX 1 X 2 IFEAQKIEWR (SEQ ID NO: 7), wherein X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12). • an avidin core, wherein the avidin core consists of avidin, neutravidin or streptavidin; • at least one targeting molecule selected from the group consisting of antibody single-chain variable fragments (scFv), • at least one the therapeutically active payload selected from the group consisting of proteins, peptides and therapeutically active nucleic acids, • said at least one targeting molecule and said at least one therapeutically active payload are bound to the avidin core; • said antibody single-chain variable fragment is comprised in a construct, having the structure: antibody single-chain variable fragment - biotinylation acceptor peptide (BAP); or antibody single-chain variable fragment - linker - BAP; and antibody single-chain variable fragment - biotinylation acceptor peptide (BAP); or antibody single-chain variable fragment - linker - BAP; and • this construct is mono-biotinylated at the BAP, • • ∘ LX 1 X 2 IFEAQKIEWR (SEQ ID NO: 7), wherein X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12). X 1 = any amino acid; and X 2 = is any amino acid except L, V, I, W, F or Y; ∘ GLNDIFEAQKIEWHE (SEQ ID NO. 8); ∘ ALNDIFEAQKIEWHA (SEQ ID NO: 9); ∘ MAGGLNDIFEAQKIEWHEDTGGS (SEQ ID NO. 10); MSGLNDIFEAQKIEWHEGAPSSR (SEQ ID NO: 11); and ∘ LHHILDAQKMVWNHR (SEQ ID NO: 12).