mhurhangee/patent-ind-claim-en huggingface dataset:
A platelet aggregation analysis method, comprising: a step (S102) of adding a platelet-inducing substance and a calcium salt to a platelet-containing specimen, wherein the platelet-inducing substance and the calcium salt are added to the platelet-containing specimen in a single step; a step of stirring the platelet-containing specimen for a time controlled by a time control unit; and a step (S104) of acquiring measurement data of an electrical characteristic and/or viscoelasticity of the platelet-containing specimen in a non-stirring state of the platelet-containing specimen. a step (S102) of adding a platelet-inducing substance and a calcium salt to a platelet-containing specimen, wherein the platelet-inducing substance and the calcium salt are added to the platelet-containing specimen in a single step; a step of stirring the platelet-containing specimen for a time controlled by a time control unit; and a step (S104) of acquiring measurement data of an electrical characteristic and/or viscoelasticity of the platelet-containing specimen in a non-stirring state of the platelet-containing specimen.
Longitudinal adjuster for a vehicle seat having at least one pair of rails which is formed from a lower seat rail and an upper seat rail , wherein the seat rails of the pair of seat rails mutually engage around each other and are movable relative to each other in the longitudinal direction (x) and are lockable to each other by means of a locking device , wherein the locking device has at least one latching plate which is movable in the vertical direction (z), wherein the latching plate has a guide pin protruding in the vertical direction (z), wherein the upper seat rail has an opening (22; 222) aligned with the guide pin , wherein a guide sleeve (24; 124; 224) extending into the cavity formed between the seat rails is accommodated in the opening (22; 222) and the guide pin is guided by means of the guide sleeve (24; 124; 224), characterized in that the upper seat rail and the guide sleeve (24; 124; 224) are connectable by means of a bayonet catch.
A method for performing activation of n-type or p-type dopants in a GaN-base semiconductor layer comprises the following steps: • providing a substrate comprising a GaN-base semiconductor material layer , • performing the following successive steps at least twice: ∘ implanting electric dopant impurities in the semiconductor material layer , ∘ performing heat treatment so as to activate the electric dopant impurities in the semiconductor material layer , a cap layer covering the semiconductor material layer when the heat treatment is performed, two implantation steps of electric dopant impurities being separated by a heat treatment step and at least one of the heat treatment steps is performed at atmospheric pressure at a temperature comprised between 1100°C and 1300°C for a period of 1 to 7 hours. • providing a substrate comprising a GaN-base semiconductor material layer , • performing the following successive steps at least twice: ∘ implanting electric dopant impurities in the semiconductor material layer , ∘ performing heat treatment so as to activate the electric dopant impurities in the semiconductor material layer , a cap layer covering the semiconductor material layer when the heat treatment is performed, ∘ implanting electric dopant impurities in the semiconductor material layer , ∘ performing heat treatment so as to activate the electric dopant impurities in the semiconductor material layer , a cap layer covering the semiconductor material layer when the heat treatment is performed,
A tundish for continuous casting, the tundish having an inner volume comprising: an inlet portion comprising an inlet for receiving molten metal, an outlet portion comprising at least one outlet for discharging molten metal, and a flow separator , the tundish further comprising an EMS stirrer for electromagnetic stirring, wherein, the flow separator is positioned between the inlet portion and the outlet portion , the EMS stirrer is disposed outside of the tundish , at a vertical position below the top of the inner volume of the tundish and above the bottom of the inner volume of the tundish , the EMS stirrer is disposed to stir the molten metal in an essentially horizontal direction, with essentially no vertical component, and to make the molten metal in the outlet portion flow in a horizontal direction, and the flow which is directly induced by the EMS stirrer flows away from the inlet , and wherein the flow separator is configured to restrict the stirring of the molten metal by the EMS stirrer in the inlet portion . the tundish further comprising an EMS stirrer for electromagnetic stirring, wherein, the flow separator is positioned between the inlet portion and the outlet portion , the EMS stirrer is disposed outside of the tundish , at a vertical position below the top of the inner volume of the tundish and above the bottom of the inner volume of the tundish , the EMS stirrer is disposed to stir the molten metal in an essentially horizontal direction, with essentially no vertical component, and to make the molten metal in the outlet portion flow in a horizontal direction, and the flow which is directly induced by the EMS stirrer flows away from the inlet , and wherein the flow separator is configured to restrict the stirring of the molten metal by the EMS stirrer in the inlet portion .
Compressor comprising a housing and a shaft which is rotatably mounted in the housing and on which at least one compressor wheel , comprising a plurality of blade elements , for compressing a fluid medium is disposed in a rotationally fixed manner; wherein the compressor wheel furthermore comprises a connector element which on the inflow side is disposed in front of the blade elements ; wherein the connector element has an external shape which along the rotation axis tapers at least in portions in the direction of the blade elements ; wherein the compressor furthermore has an electric drive machine which on the inflow side is disposed in front of the compressor wheel ; wherein the electric drive machine has at least one rotor and one stator ; wherein the rotor is connected in a rotationally fixed manner to the shaft ; wherein the stator comprises a stator housing ; wherein the rotor is disposed within the stator housing , characterized in that the connector element comprises a collar disposed on the inflow side; wherein the collar has an annular end side , and the annular end side of the collar and the stator housing are mutually adapted in such a manner that an external diameter of the collar on the end side corresponds to an external diameter of the stator housing .
A modular game comprising a number of pieces , each piece having at least three pairs of faces (110-140, 120-150, 130-160) arranged in different planes, each pair of faces (110-140, 120-150, 130-160) consisting of a first face having a projection projecting outwards from the piece , and a second face symmetrically opposite to the first face and having a recess whose shape is complementary to the shape of the projection of the first face , to allow several pieces to be coupled to each other so that they are arranged in alignment on at least three different axes (x, y, z), characterized in that the projection of the first face and the recess of the second face have a complementary shape corresponding to the letter X in a first pair of faces (110-140), to the letter Y in a second pair of faces (120-150), and to the letter Z in a third pair of faces (130-160).
A computer-implemented method of generating a three-dimensional colored point cloud, the method comprising: obtaining a first image and a second image, said first and second images encoding a projection of an original three-dimensional colored point cloud, pixels of said first and second images comprising a depth attribute and a color attribute; inverse projecting pixels of said first image and inverse projecting pixels of said second image wherein, when the inverse projecting of a first pixel of the first image and the inverse projecting of a second pixel of the second image refer to a common generated point, attributing to said generated point, the color value of the first or the second pixel, the attributed color being the color stored in the pixel having the lowest local depth variance; wherein the local depth variance is computed for a region of n × n pixels around said first and second pixels, with n being an integer greater than or equal to three. obtaining a first image and a second image, said first and second images encoding a projection of an original three-dimensional colored point cloud, pixels of said first and second images comprising a depth attribute and a color attribute; inverse projecting pixels of said first image and inverse projecting pixels of said second image wherein, when the inverse projecting of a first pixel of the first image and the inverse projecting of a second pixel of the second image refer to a common generated point, attributing to said generated point, the color value of the first or the second pixel, the attributed color being the color stored in the pixel having the lowest local depth variance; wherein the local depth variance is computed for a region of n × n pixels around said first and second pixels, with n being an integer greater than or equal to three.
Process for preparing a food casing, in particular a sausage casing, comprising the steps of: - preparing a collagen water mixture wherein the concentration of collagen in said mixture is 6-10wt.%, which further contains salt and wherein the salt is not a pectinate and/or alginate salt, - followed by a subsequent acidification step, thus forming a gel, - followed by a step wherein said casing is formed from said gel, wherein said salt reduces swelling of collagen fibers upon said acidification wherein said salt is present in said mixture in a concentration of 0.05-1mol/dm 3 , and wherein said gel has a viscosity of less than 20,000cP. - preparing a collagen water mixture wherein the concentration of collagen in said mixture is 6-10wt.%, which further contains salt and wherein the salt is not a pectinate and/or alginate salt, - followed by a subsequent acidification step, thus forming a gel, - followed by a step wherein said casing is formed from said gel, wherein said salt reduces swelling of collagen fibers upon said acidification wherein said salt is present in said mixture in a concentration of 0.05-1mol/dm 3 , and wherein said gel has a viscosity of less than 20,000cP.
Heat exchanger particularly suited to be used in condensing boilers, comprising a single-piece structure which comprises: - a tubular jacket which internally delimits a first duct extending between an inlet portion and an outlet portion which define a downflow direction (F) for a first heat exchange fluid (G); - a second duct arranged in thermal contact with at least one external wall of said tubular jacket and extending between an inlet mouth and an outlet mouth for the passage of a second heat exchange fluid; - a plurality of heat exchange elements projecting from said tubular jacket towards the inside of said first duct ; wherein, at least in a first portion of said first duct adjacent to said inlet portion , said plurality of heat exchange elements comprises a first plurality of pins , each one of said pins being defined on said tubular jacket so that it is aligned with the pins adjacent to it according to axes (X 1 , X 2 ...X n-1 , X n ) which are parallel to said downflow direction (F) and according to axes (Y 1 , Y 2 ...Y n-1 , Y n ) which are orthogonal to said downflow direction (F), characterized in that between each pair of said pins aligned according to an axis (X 1 , X 2 ...X n-1 , X n ) parallel to said downflow direction (F) there is an interconnection rib for interconnecting said pair of said pins , said interconnection rib projecting from said tubular jacket towards the inside of said first duct over a height (h1) which is shorter than the heights (h2) of said pins . - a tubular jacket which internally delimits a first duct extending between an inlet portion and an outlet portion which define a downflow direction (F) for a first heat exchange fluid (G); - a second duct arranged in thermal contact with at least one external wall of said tubular jacket and extending between an inlet mouth and an outlet mouth for the passage of a second heat exchange fluid; - a plurality of heat exchange elements projecting from said tubular jacket towards the inside of said first duct ; wherein, at least in a first portion of said first duct adjacent to said inlet portion , said plurality of heat exchange elements comprises a first plurality of pins , each one of said pins being defined on said tubular jacket so that it is aligned with the pins adjacent to it according to axes (X 1 , X 2 ...X n-1 , X n ) which are parallel to said downflow direction (F) and according to axes (Y 1 , Y 2 ...Y n-1 , Y n ) which are orthogonal to said downflow direction (F), characterized in that between each pair of said pins aligned according to an axis (X 1 , X 2 ...X n-1 , X n ) parallel to said downflow direction (F) there is an interconnection rib for interconnecting said pair of said pins , said interconnection rib projecting from said tubular jacket towards the inside of said first duct over a height (h1) which is shorter than the heights (h2) of said pins .
A method for preparation of a super absorbent polymer, comprising the steps of: a step of forming a hydrogel polymer containing a first cross-linked polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent (Step 1); drying, pulverizing and classifying the hydrogel polymer to form a base resin powder (Step 2); and cross-linking a surface by heat-treating the base resin powder in the presence of a surface cross-linking solution to form super absorbent polymer particles (Step 3); and adding brine to the super absorbent polymer particles (Step 4), wherein a conductivity of the brine is 15 to 55 mS/cm, the conductivity of the brine being measured at room temperature (25 °C) and atmospheric pressure (1 atm), wherein the brine is added in an amount of 0.5 to 1.5 wt% based on the super absorbent polymer particles, and wherein the brine is an aqueous solution of Na 2 CO 3 , NaCl, or Mg(CH 3 COO) 2 . a step of forming a hydrogel polymer containing a first cross-linked polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent (Step 1); drying, pulverizing and classifying the hydrogel polymer to form a base resin powder (Step 2); and cross-linking a surface by heat-treating the base resin powder in the presence of a surface cross-linking solution to form super absorbent polymer particles (Step 3); and adding brine to the super absorbent polymer particles (Step 4), wherein a conductivity of the brine is 15 to 55 mS/cm, the conductivity of the brine being measured at room temperature (25 °C) and atmospheric pressure (1 atm), wherein the brine is added in an amount of 0.5 to 1.5 wt% based on the super absorbent polymer particles, and wherein the brine is an aqueous solution of Na 2 CO 3 , NaCl, or Mg(CH 3 COO) 2 .
An X-ray dental imaging system for medical imaging of patients in standing and sitting positions, comprising: a column ; an upper shelf rotatably coupled to the column about a first rotational axis (A3) and vertically translatable; a rotating part rotatably coupled to the upper shelf about a second rotational axis (A4) spaced from the first rotational axis; a chair spaced from the column; and a controller configured to control the X-ray dental imaging system to vertically translate a height of the upper shelf, rotationally adjust the upper shelf about the first rotational axis, and rotationally adjust the rotating part about the second rotational axis so as to position the rotating part in a first position about a patient's head when the patient is seated on the chair; and vertically translate the height of the upper shelf, rotationally adjust the upper shelf about the first rotational axis, and rotationally adjust the rotating part about the second rotational axis so as to position the rotating part in a second, different position about a patient's head when the patient is standing at a location away from the chair. a column ; an upper shelf rotatably coupled to the column about a first rotational axis (A3) and vertically translatable; a rotating part rotatably coupled to the upper shelf about a second rotational axis (A4) spaced from the first rotational axis; a chair spaced from the column; and a controller configured to control the X-ray dental imaging system to vertically translate a height of the upper shelf, rotationally adjust the upper shelf about the first rotational axis, and rotationally adjust the rotating part about the second rotational axis so as to position the rotating part in a first position about a patient's head when the patient is seated on the chair; and vertically translate the height of the upper shelf, rotationally adjust the upper shelf about the first rotational axis, and rotationally adjust the rotating part about the second rotational axis so as to position the rotating part in a second, different position about a patient's head when the patient is standing at a location away from the chair.
Repositioning device for timepieces comprising a repositioning cam , a hammer , a return spring and a control device , the control device being arranged to keep the hammer in an inoperative position against the action of the return spring , to release the hammer so that it strikes the repositioning cam under the action of the return spring and causes it to turn until locking it in a predetermined position, and to return the hammer to its inoperative position against the action of the return spring , the return spring being arranged to work within a predetermined range of winding angles during each return of the hammer to its inoperative position, the return spring being a spring which behaves in a non-linear manner, the stiffness of which is zero or negative in at least part of the predetermined range.
A method comprising: exposing a cell to a timing indicator at a time , wherein the cell is configured to integrate a first homology directed repair (HDR) template into a double-stranded polynucleotide in response to exposing the cell to the timing indicator and to integrate a second HDR template into the repair formed by the first HDR template in the double-stranded polynucleotide in response to a molecular event, wherein the molecular event leads to creation of the second HDR template or to changes that increase the ability of an already existing second HDR template to be incorporated into the double-stranded polynucleotide; obtaining sequence data from the double-stranded polynucleotide after exposing the cell to the timing indicator and after the molecular event ; and correlating the molecular event with the time based at least partly on analyzing the sequence data . exposing a cell to a timing indicator at a time , wherein the cell is configured to integrate a first homology directed repair (HDR) template into a double-stranded polynucleotide in response to exposing the cell to the timing indicator and to integrate a second HDR template into the repair formed by the first HDR template in the double-stranded polynucleotide in response to a molecular event, wherein the molecular event leads to creation of the second HDR template or to changes that increase the ability of an already existing second HDR template to be incorporated into the double-stranded polynucleotide; obtaining sequence data from the double-stranded polynucleotide after exposing the cell to the timing indicator and after the molecular event ; and correlating the molecular event with the time based at least partly on analyzing the sequence data .
A vector for use in a method of treatment of Parkinson's disease, the vector comprising a nucleic acid encoding a glucocerebrosidase protein, wherein the nucleic acid is operably linked to a synapsin promoter, and wherein the vector is an AAV2/5 vector.
A control device of a roll-to-roll transfer system including a dancer roller that applies tension to a web , and a sensor that detects a position of the dancer roller , the control device comprising: a display control unit that displays, on a predetermined display unit, a screen including a first button for storing a detection value of the sensor as a first detection value indicating that the dancer roller is at a first position, and a second button for storing a detection value of the sensor as a second detection value indicating that the dancer roller is at a second position; and a dancer position identifying unit that identifies a position of the dancer roller indicated by the detection value of the sensor using the first detection value and the second detection value. a display control unit that displays, on a predetermined display unit, a screen including a first button for storing a detection value of the sensor as a first detection value indicating that the dancer roller is at a first position, and a second button for storing a detection value of the sensor as a second detection value indicating that the dancer roller is at a second position; and a dancer position identifying unit that identifies a position of the dancer roller indicated by the detection value of the sensor using the first detection value and the second detection value.
Apparatus for simulating driving a land vehicle, comprising: - a base provided with a flat support surface on which a mobile platform is positioned, - first means for moving said mobile platform along two linear directions perpendicular to each other (X, Y) and for rotating said mobile platform along a third direction, or axis, (Z), that is perpendicular to a plane that contains the X, Y, directions; - a driving position associated with said mobile platform , - second means for moving said one driving position with respect to the mobile platform , comprising a plurality of linear connection elements , each associated with a respective first end to the mobile platform , and with a respective second end , opposite the first end , directly or indirectly to the driving position , wherein each of said first ends is pivoted with a base joint to a corresponding sliding block slidingly associated with a rectilinear guide , and each of said second ends is pivoted to the driving position with a butt or cardanic joint , said sliding block and said guide defining another base joint , wherein said second means allow a movement of said driving position according to further three directions (x, y and z), and a rotation around the same three directions (x, y and z). - a base provided with a flat support surface on which a mobile platform is positioned, - first means for moving said mobile platform along two linear directions perpendicular to each other (X, Y) and for rotating said mobile platform along a third direction, or axis, (Z), that is perpendicular to a plane that contains the X, Y, directions; - first means for moving said mobile platform along two linear directions perpendicular to each other (X, Y) and for rotating said mobile platform along a third direction, or axis, (Z), that is perpendicular to a plane that contains the X, Y, directions; - a driving position associated with said mobile platform , - second means for moving said one driving position with respect to the mobile platform , comprising a plurality of linear connection elements , each associated with a respective first end to the mobile platform , and with a respective second end , opposite the first end , directly or indirectly to the driving position ,