mhurhangee/ep-ind-claims huggingface dataset:
Procedure for the preparation of organic or inorganic samples for the clinical or scientific examination thereof, of the type comprising the impregnation of a sample disposed in a basket, by successively immersing the basket in beakers containing a liquid composition for different treatments, the beakers being circumferentially spaced on a turntable, the procedure comprising the successive steps of: - starting from said basket above the level of liquid, immersing said basket in a down movement into said composition, - raising the basket in an up movement above the level of liquid, - following a sample drainage phase, transferring the basket into the next beaker along with the sample; characterized in that: (i) The procedure includes an agitation phase of a stratified composition of the processing liquid within the corresponding beaker, comprising: - agitating said basket inside the processing liquid through a clockwise rotary self-rotating movement immediately followed by another movement in the opposite direction; - thereafter starting an ascent phase of the basket, without ceasing the self-rotating rotation thereof, thereby raising the basket until it is completely or partially located above the level of liquid, - further immersing the basket and performing another movement of reciprocating basket self-rotating rotations within the liquid; (ii) The sample draining phase includes a centrifugation phase of the basket. - starting from said basket above the level of liquid, immersing said basket in a down movement into said composition, - raising the basket in an up movement above the level of liquid, - following a sample drainage phase, transferring the basket into the next beaker along with the sample; (i) The procedure includes an agitation phase of a stratified composition of the processing liquid within the corresponding beaker, comprising: - agitating said basket inside the processing liquid through a clockwise rotary self-rotating movement immediately followed by another movement in the opposite direction; - thereafter starting an ascent phase of the basket, without ceasing the self-rotating rotation thereof, thereby raising the basket until it is completely or partially located above the level of liquid, - further immersing the basket and performing another movement of reciprocating basket self-rotating rotations within the liquid; - agitating said basket inside the processing liquid through a clockwise rotary self-rotating movement immediately followed by another movement in the opposite direction; - thereafter starting an ascent phase of the basket, without ceasing the self-rotating rotation thereof, thereby raising the basket until it is completely or partially located above the level of liquid, - further immersing the basket and performing another movement of reciprocating basket self-rotating rotations within the liquid; (ii) The sample draining phase includes a centrifugation phase of the basket.
A system comprising: a display configured to transmit a signal comprising: a first light configured as a display image; and a beam splitter configured to receive the signal and reflect the signal; a selectively transmissive mirror configured to receive the reflected signal, and reflect the first light, wherein the first light is configured with a first bandwidth; and a corrector lens configured to receive the first light and transmit the first light to an exit pupil, characterized in that the signal comprises a second light configured as a reference image; the system comprises a sensor configured to detect the second light; the selectively transmissive mirror is configured to transmit the second light to the sensor; and in that the second light is configured with a second bandwidth. a display configured to transmit a signal comprising: a first light configured as a display image; and a beam splitter configured to receive the signal and reflect the signal; a selectively transmissive mirror configured to receive the reflected signal, and reflect the first light, wherein the first light is configured with a first bandwidth; and a corrector lens configured to receive the first light and transmit the first light to an exit pupil, characterized in that the signal comprises a second light configured as a reference image; the system comprises a sensor configured to detect the second light; the selectively transmissive mirror is configured to transmit the second light to the sensor; and in that the second light is configured with a second bandwidth.
A polylactic acid foam molding material made from three types of cross-linked polylactic acids,, and each manufactured individually by cross-linking the polylactic acids each having differing structural proportions of D isomers and L isomers, with between 0.2 and 2.0 parts by weight of a cross-linking agent having epoxy groups or polyisocyanate groups, relative to a total of 100 parts by weight for the polylactic acids, wherein the structural proportions (D/L) for the D isomers and the L isomers in the polylactic acids,, and are D A /L A = 5 to 20/95 to 80 (where D A + L A = 100) for the polylactic acid, D B /L B = (D A +3 to D A +10)/(L A -3 to L A -10) (where D B + L B = 100) for the polylactic acid, and D C /L C = (D B +3 to D B +10)/(L B -3 to L B -10) (where D C + L C = 100) for the polylactic acid, wherein no polylactic acid with a polystyrene-equivalent molecular weight of 2,000,000 or more, in a GPC measurement, is included, the weight proportions of the polylactic acids:: are 25-50:25-50:25-50 (wherein + + = 100), and wherein the MI value, measured in accordance with JIS K 7210 at 190°C and a load of 21.6 kg, is between 0.05 and 5.
A method for cutting off an edge portion of a workpiece by means of a laser severing cut, wherein the laser severing cut is formed by a plurality of individual severing cuts strung together, and wherein, after an individual severing cut, a laser cutting head that performs the laser severing cut is moved to a start position of the respective next individual severing cut along a defined movement path, characterized in that each individual severing cut is directed, with edge detection activated, in the direction towards an edge of the edge portion at least until the edge of the edge portion is detected on the basis of the edge detection, before the respective next individual severing cut is executed, that the edge detection is activated only as from a predetermined distance of the individual severing cut from the laser severing cut, and that the laser beam of the laser cutting head performing the individual cut and the edge detection are respectively deactivated as soon as the individual severing cut is terminated.
A non-therapeutic method for inducing a mammalian cell to produce a recombinant protein, the method comprising contacting said mammalian cell with in vitro -synthesized mRNA comprising an open reading frame that encodes said recombinant protein; wherein the in vitro -synthesized mRNA comprises Ψ or m 1 Ψ (1-methylpseudouridine); and wherein the quantity of IL-12, IFN-α, TNF-α, RANTES, MIP-1α, MIP-1β, IL-6, IFN-β or IL-8 secreted in response to said contacting is less than the respective quantity of IL-12, IFN-α, TNF-α, RANTES, MIP-1α, MIP-1β, IL-6, IFN-β or IL-8 secreted in response to contacting said mammalian cell with an unmodified counterpart mRNA not comprising Ψ or m 1 Ψ (1-methylpseudouridine). wherein the in vitro -synthesized mRNA comprises Ψ or m 1 Ψ (1-methylpseudouridine); and wherein the quantity of IL-12, IFN-α, TNF-α, RANTES, MIP-1α, MIP-1β, IL-6, IFN-β or IL-8 secreted in response to said contacting is less than the respective quantity of IL-12, IFN-α, TNF-α, RANTES, MIP-1α, MIP-1β, IL-6, IFN-β or IL-8 secreted in response to contacting said mammalian cell with an unmodified counterpart mRNA not comprising Ψ or m 1 Ψ (1-methylpseudouridine).
A one-piece blank made of a foldable material for a base formed by folding and permanently connecting the blank, wherein the blank, in an original state in which the blank is not folded and permanently connected, extends in a plane spanned by a width direction and length direction, which are oriented perpendicular to each other, wherein the blank comprises: outer sidewalls connected to each other via first folding lines extending in the length direction; inner sidewalls, wherein the inner and outer sidewalls (14, 16) are assigned to each other in pairs so that sidewalls (14-1, 16-1; 14-2, 16-2; 14-3, 16-3; 14-4, 16-4) assigned to each other are opposite to each other in an assembled state of the folded and permanently connected blank; lid flaps arranged in the length direction between the outer and inner sidewalls (14, 16), wherein the lid flaps are connected via second and third folding lines (24, 26), which extend in the width direction, to the outer and inner sidewalls (14, 16); and fixing flaps, wherein the fixing flaps are connected via fourth folding lines, which extend in the length direction, to the inner sidewalls; wherein at least two of the fixing flaps (20-2, 20-3), which are directly opposite adjacent to each other in the width direction, are directly connected to each other, characterized in that a standing surface of the folded and permanently connected blank, on which the folded and permanently connected blank stands in the assembled state, is formed by fold-free edges (34, 36) of the inner and outer sidewalls (14, 16), wherein the fold-free edges (34, 36) are not produced by folding. outer sidewalls connected to each other via first folding lines extending in the length direction; inner sidewalls, wherein the inner and outer sidewalls (14, 16) are assigned to each other in pairs so that sidewalls (14-1, 16-1; 14-2, 16-2; 14-3, 16-3; 14-4, 16-4) assigned to each other are opposite to each other in an assembled state of the folded and permanently connected blank; lid flaps arranged in the length direction between the outer and inner sidewalls (14, 16), wherein the lid flaps are connected via second and third folding lines (24, 26), which extend in the width direction, to the outer and inner sidewalls (14, 16); and fixing flaps, wherein the fixing flaps are connected via fourth folding lines, which extend in the length direction, to the inner sidewalls; wherein at least two of the fixing flaps (20-2, 20-3), which are directly opposite adjacent to each other in the width direction, are directly connected to each other, characterized in that a standing surface of the folded and permanently connected blank, on which the folded and permanently connected blank stands in the assembled state, is formed by fold-free edges (34, 36) of the inner and outer sidewalls (14, 16), wherein the fold-free edges (34, 36) are not produced by folding.
Cleaner formulated in solid form for hot beverage machines, characterised in that it contains: a) at least one chelating agent for Ca and/or Mg ions selected from the group consisting of MGDA and GLDA, b) at least one complexing agent selected from the group consisting of gluconic acids, iminodisuccinate, ATMP (aminotrismethylenephosphonic acid), DTMP (diethylenetriamine-pentamethylenephosphonic acid), HEDP (1-hydroxyethane-1,1-diphosphonic acid), HDTMP (hexamethylenediaminetetramethylenephosphonic acid), PBTC (phosphonobutane-1,2,4-tricarboxylic acid), phosphonic acids; and salts of the aforementioned acids, c) at least one polymeric acid selected from the group consisting of polymeric acrylic acids, methacrylic acids, maleic acids, sulfonated polystyrenes and copolymers of the aforementioned acids, the cleaner being free of surfactants, silicates and phosphates, and the cleaner having a pH value of 8 to 11 in 1% by weight aqueous solution. a) at least one chelating agent for Ca and/or Mg ions selected from the group consisting of MGDA and GLDA, b) at least one complexing agent selected from the group consisting of gluconic acids, iminodisuccinate, ATMP (aminotrismethylenephosphonic acid), DTMP (diethylenetriamine-pentamethylenephosphonic acid), HEDP (1-hydroxyethane-1,1-diphosphonic acid), HDTMP (hexamethylenediaminetetramethylenephosphonic acid), PBTC (phosphonobutane-1,2,4-tricarboxylic acid), phosphonic acids; and salts of the aforementioned acids, c) at least one polymeric acid selected from the group consisting of polymeric acrylic acids, methacrylic acids, maleic acids, sulfonated polystyrenes and copolymers of the aforementioned acids,
A curved surface diffraction grating fabrication method, comprising: a step of forming a diffraction grating pattern on a flat-shaped silicon substrate;; a step of curving the silicon substrate on which the diffraction grating pattern is formed, by pressing, in a heated state, a fixing substrate (3,6) having a shape with a desired curved surface onto the silicon substrate and of fixing the silicon substrate on which the diffraction grating pattern is formed to the fixing substrate having the shape with the curved surface, to fabricate a curved surface diffraction grating cast; and a step of bringing a member having flexibility into contact with the curved surface diffraction grating cast, to transfer the diffraction grating pattern to the member. a step of forming a diffraction grating pattern on a flat-shaped silicon substrate;; a step of curving the silicon substrate on which the diffraction grating pattern is formed, by pressing, in a heated state, a fixing substrate (3,6) having a shape with a desired curved surface onto the silicon substrate and of fixing the silicon substrate on which the diffraction grating pattern is formed to the fixing substrate having the shape with the curved surface, to fabricate a curved surface diffraction grating cast; and a step of bringing a member having flexibility into contact with the curved surface diffraction grating cast, to transfer the diffraction grating pattern to the member.
A method of manufacturing smoking articles, comprising: forming first multi-segment components each comprising a combustible heat source, an aerosol-forming substrate and an airflow directing segment by: feeding a stream of combustible heat sources, aerosol-forming substrates and airflow directing segments along a moving delivery path; compacting into groups the combustible heat sources, the aerosol-forming substrates and the airflow directing segments, each group corresponding to a discrete first multi-segment component; wrapping the combustible heat sources, aerosol-forming substrates, and airflow directing segments in a web of material; and cutting the web of material between groups to separate the individual first multi-segment components from each other; feeding a stream of first multi-segment components onto a receiving means; feeding a stream of second multi-segment components, each comprising a mouthpiece and at least one further segment, onto the receiving means; and combining a first multi-segment component and a second multi-segment component by wrapping the first multi-segment component and the second multi-segment component in a web material to form an individual smoking article having a combustible heat source at a first end and a mouthpiece at a second end. forming first multi-segment components each comprising a combustible heat source, an aerosol-forming substrate and an airflow directing segment by: feeding a stream of combustible heat sources, aerosol-forming substrates and airflow directing segments along a moving delivery path; compacting into groups the combustible heat sources, the aerosol-forming substrates and the airflow directing segments, each group corresponding to a discrete first multi-segment component; wrapping the combustible heat sources, aerosol-forming substrates, and airflow directing segments in a web of material; and cutting the web of material between groups to separate the individual first multi-segment components from each other; feeding a stream of combustible heat sources, aerosol-forming substrates and airflow directing segments along a moving delivery path; compacting into groups the combustible heat sources, the aerosol-forming substrates and the airflow directing segments, each group corresponding to a discrete first multi-segment component; wrapping the combustible heat sources, aerosol-forming substrates, and airflow directing segments in a web of material; and cutting the web of material between groups to separate the individual first multi-segment components from each other; feeding a stream of first multi-segment components onto a receiving means; feeding a stream of second multi-segment components, each comprising a mouthpiece and at least one further segment, onto the receiving means; and combining a first multi-segment component and a second multi-segment component by wrapping the first multi-segment component and the second multi-segment component in a web material to form an individual smoking article having a combustible heat source at a first end and a mouthpiece at a second end.
A fitment (10, 50) comprising: (i) a top portion (12, 52); (ii) a base (14, 54), and a channel (18, 58) extending through the top portion (12, 52) and the base (14, 54) for passage of a flowable material; and (iii) a flexible valve (19, 59) extending across the channel (18, 58) and having a slit which opens to permit flow therethrough, characterised by the flexible valve (19, 59) being composed of an ethylene/α-olefin multi-block copolymer; wherein the flexible valve (19, 59) is integral to the fitment (10, 50); and wherein the base (14, 54) comprises a pair of opposing sidewalls (20, 22, 60, 62), the sidewalls (20, 22, 60, 62) extending around the channel (18, 58), the sidewalls (20, 22, 60, 62) joined together at opposing ends (24, 26, 64, 66); and at least one sealing rib (30, 70) extending along the sidewalls (20, 22, 60, 62). (i) a top portion (12, 52); (ii) a base (14, 54), and a channel (18, 58) extending through the top portion (12, 52) and the base (14, 54) for passage of a flowable material; and (iii) a flexible valve (19, 59) extending across the channel (18, 58) and having a slit which opens to permit flow therethrough, characterised by the flexible valve (19, 59) being composed of an ethylene/α-olefin multi-block copolymer; wherein the flexible valve (19, 59) is integral to the fitment (10, 50); and wherein the base (14, 54) comprises a pair of opposing sidewalls (20, 22, 60, 62), the sidewalls (20, 22, 60, 62) extending around the channel (18, 58), the sidewalls (20, 22, 60, 62) joined together at opposing ends (24, 26, 64, 66); and at least one sealing rib (30, 70) extending along the sidewalls (20, 22, 60, 62).
System for extruding cords of building material for robot for additive manufacturing of architectural structures comprising: - a building material bead extrusion head comprising a building material inlet, an outlet nozzle configured to form building material beads and a pump metering device configured to be able to convey the building material from the inlet mouth to the outlet nozzle, said extrusion head being intended to be moved by the robot additive manufacturing along a predetermined trajectory to form an architectural structure by stacking layers of said extruded cords, - a construction material supply circuit to said extrusion head comprising a construction material storage tank, a construction material supply line connecting said storage and said extrusion head, and a booster pump of said supply pipe of building material from the storage tank, characterized in that it further comprises a device for projecting fibers for the structural reinforcement of the extruded cords adapted to be able to project and insert into the cords extruded by the said extrusion head, fibers structural reinforcement of these cords, said fiber throwing device comprising: - a source of fibers, - means of propulsion of the fibers in the extruded cords, - means for conveying the fibers from the source of fibers to the means for propelling the fibers. - a building material bead extrusion head comprising a building material inlet, an outlet nozzle configured to form building material beads and a pump metering device configured to be able to convey the building material from the inlet mouth to the outlet nozzle, said extrusion head being intended to be moved by the robot additive manufacturing along a predetermined trajectory to form an architectural structure by stacking layers of said extruded cords, - a construction material supply circuit to said extrusion head comprising a construction material storage tank, a construction material supply line connecting said storage and said extrusion head, and a booster pump of said supply pipe of building material from the storage tank, - a source of fibers, - means of propulsion of the fibers in the extruded cords, - means for conveying the fibers from the source of fibers to the means for propelling the fibers.
An inverter device (20, 20D, 20E) comprising: a power supply unit (21, 21E) that supplies alternating-current power to an AC motor (40, 40B to 40E) whose electric characteristics in response to a rotation speed (ω) are switchable between low speed characteristics and high speed characteristics; and a switch controller (10, 11, 22, 60) that switches the electric characteristics of the AC motor (40, 40B to 40E), wherein the switch controller (10, 11, 22, 60) executes switching control that alternately switches the electric characteristics of the AC motor (40, 40B to 40E) between the low speed characteristics and the high speed characteristics on the basis of the rotation speed (ω) of the AC motor (40, 40B to 40E), wherein, in the case where the rotation speed (ω) of the AC motor (40, 40B to 40E) is within a certain area, the switch controller (10, 11, 22, 60) executes the switching control at a time ratio in accordance with the rotation speed (ω) of the AC motor (40, 40B to 40E). a power supply unit (21, 21E) that supplies alternating-current power to an AC motor (40, 40B to 40E) whose electric characteristics in response to a rotation speed (ω) are switchable between low speed characteristics and high speed characteristics; and a switch controller (10, 11, 22, 60) that switches the electric characteristics of the AC motor (40, 40B to 40E), wherein the switch controller (10, 11, 22, 60) executes switching control that alternately switches the electric characteristics of the AC motor (40, 40B to 40E) between the low speed characteristics and the high speed characteristics on the basis of the rotation speed (ω) of the AC motor (40, 40B to 40E), wherein, in the case where the rotation speed (ω) of the AC motor (40, 40B to 40E) is within a certain area, the switch controller (10, 11, 22, 60) executes the switching control at a time ratio in accordance with the rotation speed (ω) of the AC motor (40, 40B to 40E).