mhurhangee/ep-ind-claims huggingface dataset:
Guide channel-type device for guiding an energy chain, consisting of links that are movably connected to one another, along a vertical line or a line running with a vertical component, wherein the energy chain has two strands (16, 17) connected to one another by a deflection region, and flexible supply lines which connect a connector arranged at a fixed height to a vertically movable device or a machine are guided in the energy chain, and wherein the device comprises lateral delimiting walls, between which the energy chain is guided and which are formed by separate guide plates (4,5), which are arranged opposite one another and have smooth sliding surfaces (6,7) on their sides facing the energy chain, wherein the device has, between the two sliding surfaces (6, 7), a receiving space for the strands (16, 17) connected to one another by a deflection region, and the guide plates (4,5) are retained in brackets, which can be fastened at intervals, with a height offset, to a supporting wall, wherein the brackets are formed U-shaped, wherein the exterior side of the U web of the bracket can be caused to rest against the supporting wall, and the guide plates (4,5) can be fastened to the interior sides of the U legs (14,15) of the bracket, characterized in that the sliding surfaces (6,7) are provided with a guide flange (8,9, 10,11) protruding at a right angle in each of their two lateral edge regions, wherein the guide flanges (8, 9) delimit, at both lateral edge regions, the receiving space for the strands (16, 17) connected to one another by a deflection region.
A method performed by a User Equipment, UE, the method comprising: triggering, by a Medium Access Control, MAC, entity (100, 200), a first Scheduling Request, SR, procedure for a first logical channel, so that the first SR procedure is pending, the first logical channel being not configured with a valid Physical Uplink Control Channel, PUCCH, resource for the first SR procedure; determining that a second SR procedure for a second logical channel configured with a valid PUCCH resource for the second SR procedure is pending; and in response to triggering the first SR procedure, performing operations including: initiating, by the MAC entity (100, 200), a Random Access, RA, procedure, and selecting one of a plurality of pending SR procedures including the first SR procedure and the second SR procedure to cancel, wherein the selected pending SR procedure to be canceled is the first SR procedure and the second SR procedure is not selected to be canceled. triggering, by a Medium Access Control, MAC, entity (100, 200), a first Scheduling Request, SR, procedure for a first logical channel, so that the first SR procedure is pending, the first logical channel being not configured with a valid Physical Uplink Control Channel, PUCCH, resource for the first SR procedure; determining that a second SR procedure for a second logical channel configured with a valid PUCCH resource for the second SR procedure is pending; and in response to triggering the first SR procedure, performing operations including: initiating, by the MAC entity (100, 200), a Random Access, RA, procedure, and selecting one of a plurality of pending SR procedures including the first SR procedure and the second SR procedure to cancel, wherein the selected pending SR procedure to be canceled is the first SR procedure and the second SR procedure is not selected to be canceled. initiating, by the MAC entity (100, 200), a Random Access, RA, procedure, and selecting one of a plurality of pending SR procedures including the first SR procedure and the second SR procedure to cancel, wherein the selected pending SR procedure to be canceled is the first SR procedure and the second SR procedure is not selected to be canceled.
A rotor blade for a gas turbine engine, comprising: a platform comprising a radially inner surface, an undulating radially outer surface, a leading edge portion, a trailing edge portion, a pressure-side slash face, and a suction-side slash face; an airfoil extending outwardly from the undulating radially outer surface of the platform to an airfoil tip; and a connecting portion (102, 104) extending radially inwardly from the radially inner surface of the platform; wherein the platform, the airfoil, and the connection portion (102, 104) collectively define a cooling circuit extending from an inlet in the connection portion (102, 104) through the airfoil to a plurality of outlet plena (124, 124(a), 124(b)) in the platform, the outlet plena (124, 124(a), 124(b)) extending through the pressure-side slash face and/or the suction-side slash face, and wherein two or more outlet plena (124, 124(a), 124(b)) of the plurality of outlet plena (124, 124(a), 124(b)) are spaced equidistant from the undulating radially outer surface of the platform; characterized in that the two or more outlet plena (124, 124(a), 124(b)) comprise: one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces (130, 132). a platform comprising a radially inner surface, an undulating radially outer surface, a leading edge portion, a trailing edge portion, a pressure-side slash face, and a suction-side slash face; an airfoil extending outwardly from the undulating radially outer surface of the platform to an airfoil tip; and a connecting portion (102, 104) extending radially inwardly from the radially inner surface of the platform; wherein the platform, the airfoil, and the connection portion (102, 104) collectively define a cooling circuit extending from an inlet in the connection portion (102, 104) through the airfoil to a plurality of outlet plena (124, 124(a), 124(b)) in the platform, the outlet plena (124, 124(a), 124(b)) extending through the pressure-side slash face and/or the suction-side slash face, and wherein two or more outlet plena (124, 124(a), 124(b)) of the plurality of outlet plena (124, 124(a), 124(b)) are spaced equidistant from the undulating radially outer surface of the platform; characterized in that the two or more outlet plena (124, 124(a), 124(b)) comprise: one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces (130, 132). one or more primary outlet plena 124(a); and one or more secondary outlet plena 124(b), each extend between one of the primary outlet plena (124(a)) and the pressure-side or suction-side slash faces (130, 132).
A polymerization system for the copolymerization of CO 2 and epoxides, the system comprising: a metal complex including a permanent ligand set and at least one ligand that is a polymerization initiator, and a chain transfer agent having one site capable of initiating copolymerization of epoxides and CO 2, wherein the chain transfer agent has a structure HO-R PG, wherein: R PG is a hydroxyl protecting group; preferably: wherein the chain transfer agent is selected from the group consisting of methanol, t -butanol, allyl alcohol, and benzyl alcohol. a metal complex including a permanent ligand set and at least one ligand that is a polymerization initiator, and a chain transfer agent having one site capable of initiating copolymerization of epoxides and CO 2, wherein the chain transfer agent has a structure HO-R PG, wherein: R PG is a hydroxyl protecting group; preferably: wherein the chain transfer agent is selected from the group consisting of methanol, t -butanol, allyl alcohol, and benzyl alcohol.
A medical examination system, comprising: a breathing guiding apparatus configured to guide a breathing of a subject an imaging device configured to scan the subject; and a controller coupled to the breathing guiding apparatus and configured to cause the breathing guiding apparatus to generate a breath guiding state for guiding the breathing of the subject by generating a first light pattern guiding the subject to inhale and a second light pattern guiding the subject to exhale, wherein the imaging device includes an X-ray generator, the controller is coupled to the X-ray generator, and the X-ray generator is configured for emitting X-rays at a time point when an inhalation or an exhalation of the subject ends, wherein the controller is adapted to control the X-ray generator to generate X-rays at the time when the first light pattern or the second light pattern ends. a breathing guiding apparatus configured to guide a breathing of a subject an imaging device configured to scan the subject; and a controller coupled to the breathing guiding apparatus and configured to cause the breathing guiding apparatus to generate a breath guiding state for guiding the breathing of the subject by generating a first light pattern guiding the subject to inhale and a second light pattern guiding the subject to exhale, wherein the imaging device includes an X-ray generator, the controller is coupled to the X-ray generator, and the X-ray generator is configured for emitting X-rays at a time point when an inhalation or an exhalation of the subject ends, wherein the controller is adapted to control the X-ray generator to generate X-rays at the time when the first light pattern or the second light pattern ends.
A semiconductor device producing method for activating dopants by entering a first laser pulse and a second laser pulse onto a second surface of a semiconductor substrate in which a semiconductor device is formed on a first surface and the dopants are added to a surface layer portion on the second surface side, comprising: calculating a relationship between an attainment temperature of the first surface of the semiconductor substrate and a time gap between falling time of the first laser pulse and rising time of the second laser pulse; determining a condition of the time gap to satisfy a condition that the attainment temperature of the first surface does not exceed an allowable upper limit value which is predetermined; entering a first laser pulse emitted from a semiconductor laser oscillator and having a first pulse width onto the second surface of the semiconductor substrate; and entering a second laser pulse having a second pulse width less than or equal to 1/10 of the first pulse width on an incident area of the first laser pulse in an overlapping manner in such a manner that the determined condition of the time gap is satisfied. calculating a relationship between an attainment temperature of the first surface of the semiconductor substrate and a time gap between falling time of the first laser pulse and rising time of the second laser pulse; determining a condition of the time gap to satisfy a condition that the attainment temperature of the first surface does not exceed an allowable upper limit value which is predetermined; entering a first laser pulse emitted from a semiconductor laser oscillator and having a first pulse width onto the second surface of the semiconductor substrate; and entering a second laser pulse having a second pulse width less than or equal to 1/10 of the first pulse width on an incident area of the first laser pulse in an overlapping manner in such a manner that the determined condition of the time gap is satisfied.
An aqueous antiperspirant composition having pH 2 to 5, comprising: (i) a water-soluble phosphate salt; (ii) a water-soluble non-phosphate salt; and, (iii) a retarding agent; wherein said water-soluble phosphate salt is selected from monosodium phosphate, disodium phosphate, trisodium phosphate, monopotassium phosphate, dipotassium phosphate, tripotassium phosphate, monoammonium phosphate, diammonium phosphate, triammonium phosphate, lithium dihydrogen phosphate, dilithium hydrogen phosphate and lithium phosphate; wherein said water-soluble non-phosphate salt is selected from calcium chloride, calcium gluconate, calcium nitrate, calcium bromide, calcium formate, calcium lactate, calcium propanoate, calcium acetate, calcium dobesilate, magnesium chloride, magnesium nitrate, magnesium sulphate, magnesium citrate, magnesium gluconate, magnesium acetate, magnesium lactate, magnesium malate, ferric chloride, ferric nitrate, ferric sulphate, zinc chloride, zinc nitrate, zinc citrate, zinc sulphate, zinc gluconate, copper chloride, copper sulphate, copper nitrate, copper acetate, copper gluconate, iron citrate, zirconium nitrate, zirconium tetrachloride, zirconium oxychloride, strontium chloride, strontium nitrate, barium chloride, barium nitrate, lanthanum chloride, lanthanum acetate, Tin chloride, Tin chloride, and silver nitrate; wherein said retarding agent is a compound which comprises at least one functional group selected from -COOH, -COO -, -SO 3 H or -SO 3 -; wherein said composition is not an oral care composition; wherein said water-soluble phosphate salt, water-soluble non-phosphate salt and retarding agent are present in one phase; wherein the solubility of said salt in water is assessed at 25°C and 101.325 kPa (atmospheric pressure). (i) a water-soluble phosphate salt; (ii) a water-soluble non-phosphate salt; and, (iii) a retarding agent;
An array with a plurality of capillaries, wherein the capillaries and the array are arranged in the same plane and the capillaries are mechanically attached to the array, and wherein the array comprises at least two bridges (21, 22) which are preferably parallel to each other and which extend preferably transverse to the longitudinal axis of the capillaries, wherein at least one first free end of each capillary projects from the array in such a way that the free ends of the capillaries may be inserted simultaneously into wells of a microwell plate, wherein the first free end projects between 3 mm to 20 mm from the array. wherein the array comprises at least two bridges (21, 22) which are preferably parallel to each other and which extend preferably transverse to the longitudinal axis of the capillaries, wherein at least one first free end of each capillary projects from the array in such a way that the free ends of the capillaries may be inserted simultaneously into wells of a microwell plate, wherein the first free end projects between 3 mm to 20 mm from the array.
A hair conditioning composition comprising a cationic surfactants, a fatty material, a polygalactomannan having hydrophilic and hydrophobic substituents, and an aqueous carrier, wherein the composition is not a styling composition comprising 1% wt. Styleze W20 (terpolymer of vinylpyrrolidone/dimethylaminopropyl methacrylamide and of lauryldimethylmethacrylamidopropylammonium chloride,, 3% wt. cetyl alcohol, 1.5% wt. DC 939 (amodimethicone, trimethylcetylammonium chloride, and nonionic surfactant of formula C 13 H 27 -(OC 2 H 4) 12 -OH), 1% wt. cetyltrimethylammonium chloride, 6.5% wt. hydroxypropyl guar, 1% wt. glycerol stearate, 2% wt. polyvinyl pyrrolidone, preservatives and to 100% wt. water.
Electrical apparatus for protection against transient overvoltages, in particular of atmospheric origin, which apparatus is suitable for forming part of an electrical installation comprising a circuit breaker having a predetermined intensity/trip-time operating curve, said apparatus comprising a first terminal and a second terminal that are each intended to be connected to one output terminal, respectively, of said circuit breaker, and a third terminal intended to be earthed, said apparatus comprising at least two branches (A, B; A', B'; A", B") that are arranged in parallel between said first terminal and said second terminal and that each comprise a varistor suitable for clipping such a transient overvoltage, said apparatus being characterised in that each branch comprises a fuse arranged in series with said varistor, said fuse being able to blow in the event of a short circuit of said varistor and having an intensity/trip-time operating curve in which, for each intensity value, the trip-time value is less than the trip-time value given for the same intensity value by the operating curve of the circuit breaker, as a result of which a short circuit of a varistor of said apparatus does not cause said circuit breaker to trip.
A method for selecting mutant proteins with improved efficiency of display on a yeast cell surface relative to a wild-type form of the protein, comprising the steps of: a) transforming yeast cells with a vector expressing a protein to be tested fused to a yeast cell wall protein, wherein mutagenesis is used to generate a variegated population of mutants of the protein to be tested; b) labeling said yeast cells with a first label, wherein said first label associates with the protein to be tested; c) isolating said yeast cells with which said first label is associated, and d) evaluating the surface expression level of the protein to be tested by quantitating said first label, wherein a high occurrence of said first label indicates said protein to be tested is displayed with improved efficiency, wherein the wild type form of the protein is not expressed at the yeast cell surface when fused to the yeast cell wall protein, and wherein the protein to be tested is the ligand binding domain of a cell surface receptor and wherein said cell surface receptor is a T cell receptor. a) transforming yeast cells with a vector expressing a protein to be tested fused to a yeast cell wall protein, wherein mutagenesis is used to generate a variegated population of mutants of the protein to be tested; b) labeling said yeast cells with a first label, wherein said first label associates with the protein to be tested; c) isolating said yeast cells with which said first label is associated, and d) evaluating the surface expression level of the protein to be tested by quantitating said first label, wherein a high occurrence of said first label indicates said protein to be tested is displayed with improved efficiency,
A connector for making electrical contact with a plurality of ring-shaped contact pads (24, 12, 22) of a medical needle, the ring-shaped contact pads (24, 12, 22) being separated axially along a shaft of the medical needle and including an inner ring-shaped sensor contact pad and two outer ring-shaped contact pads (12, 22), the connector comprising: an inner conductive body defining a first annular electrode for connecting to the inner ring-shaped contact pad on the medical needle; an insulator formed on the inner conductive body; and an outer conductive body comprising a cavity having a cavity axis, the cavity being configured to receive therein a portion of the medical needle that includes the plurality of ring-shaped contact pads (24, 12, 22), wherein the cavity extends along the cavity axis through the first annular electrode for making electrical contact within the cavity between the first annular electrode and the inner ring-shaped sensor contact pad on the medical needle; wherein the outer conductive body is formed over the insulator and surrounds the inner conductive body and is electrically isolated from the inner conductive body by the insulator; wherein the outer conductive body defines a second annular electrode and a third annular electrode, the second annular electrode and the third annular electrode being electrically connected together by the outer conductive body and being disposed along the cavity axis and axially on opposite sides of the first annular electrode for making electrical contact with the two outer ring-shaped contact pads (12, 22). an inner conductive body defining a first annular electrode for connecting to the inner ring-shaped contact pad on the medical needle; an insulator formed on the inner conductive body; and an outer conductive body comprising a cavity having a cavity axis, the cavity being configured to receive therein a portion of the medical needle that includes the plurality of ring-shaped contact pads (24, 12, 22), wherein the cavity extends along the cavity axis through the first annular electrode for making electrical contact within the cavity between the first annular electrode and the inner ring-shaped sensor contact pad on the medical needle;
Process of chemical treatment of black paste resulting from opening alkaline or zinc-carbon batteries or mixtures thereof, comprising the following steps: a) cutting zinc-carbon, alkaline batteries or mixtures thereof, with selective dry extraction of black paste; b) washing the black paste with water to separate the potassium hydroxide of the alkaline batteries or the ammonium chloride of zinc-carbon batteries, or both, in the form of a solution, and recovering the black paste fraction that is insoluble in water; c) treatment of the wet black paste resulting from step b) with an aqueous solution of sulfuric acid, achieving the solubilisation of metallic zinc and of its compounds and of manganese compounds, and the salification of the residual potassium hydroxide with the formation of potassium sulfate; d) separating the insoluble residue of black paste consisting of manganese dioxide and carbon from the sulfuric solution; e) treating the sulfuric solution obtained in step d) with oxalic acid in sub-stoichiometric amounts compared to zinc, obtaining the precipitation of zinc oxalate; f) separation of zinc oxalate from the sulfuric solution; g) electrolysis of the acid solution with formation of MnO 2 at the anode; g') treating the solution recovered after step g) with further oxalic acid, to complete the precipitation of zinc residues. a) cutting zinc-carbon, alkaline batteries or mixtures thereof, with selective dry extraction of black paste; b) washing the black paste with water to separate the potassium hydroxide of the alkaline batteries or the ammonium chloride of zinc-carbon batteries, or both, in the form of a solution, and recovering the black paste fraction that is insoluble in water; c) treatment of the wet black paste resulting from step b) with an aqueous solution of sulfuric acid, achieving the solubilisation of metallic zinc and of its compounds and of manganese compounds, and the salification of the residual potassium hydroxide with the formation of potassium sulfate; d) separating the insoluble residue of black paste consisting of manganese dioxide and carbon from the sulfuric solution; e) treating the sulfuric solution obtained in step d) with oxalic acid in sub-stoichiometric amounts compared to zinc, obtaining the precipitation of zinc oxalate; f) separation of zinc oxalate from the sulfuric solution; g) electrolysis of the acid solution with formation of MnO 2 at the anode; g') treating the solution recovered after step g) with further oxalic acid, to complete the precipitation of zinc residues.