mhurhangee/ep-ind-claims huggingface dataset:
A method for programming a safety controller, designed for switching an electrical load on and off safely in accordance with a safety regulation, wherein switching inputs (24, 26, 28, 30, 104, 106, 108, 110) and/or switching outputs (32, 34, 36, 38) of the safety controller are logically linked, wherein the switching inputs (24, 26, 28, 30, 104, 106, 108, 110) comprise two analog signal switching inputs (104, 106, 108, 110) wherein the logical link comprises a function module having at least two inputs (122, 124) each adapted to receive a pre-processed input signal from one of the analog signal switching inputs (104, 106, 108, 110), wherein a first ratio is predetermined for the signals applied to the inputs (122, 124), the function module has an output whose signal is formed as a function of the first predefined ratio, wherein the behaviour of the function module is represented by the equation Ia 1 Ia 2 = n 1 n 2, wherein the output is a digital output, wherein the output changes its value in the case of an exceeding or falling below of the first predetermined ratio, i.e. in the case of exceeding when the relation Ia1 * n2 > Ia2 * n1 becomes true and it was not true before, respectively in the case of falling below when the relation Ia1 * n2 < Ia2 * n1 becomes true and it was not true before, and thereby assumes a first predetermined value, wherein Ia1 represents the first analog input signal and Ia2 the second analog input signal and n1 and n2 are positive integers. wherein the switching inputs (24, 26, 28, 30, 104, 106, 108, 110) comprise two analog signal switching inputs (104, 106, 108, 110) wherein the logical link comprises a function module having at least two inputs (122, 124) each adapted to receive a pre-processed input signal from one of the analog signal switching inputs (104, 106, 108, 110), wherein a first ratio is predetermined for the signals applied to the inputs (122, 124), the function module has an output whose signal is formed as a function of the first predefined ratio, wherein the behaviour of the function module is represented by the equation Ia 1 Ia 2 = n 1 n 2, wherein the output is a digital output, wherein the output changes its value in the case of an exceeding or falling below of the first predetermined ratio, i.e. in the case of exceeding when the relation Ia1 * n2 > Ia2 * n1 becomes true and it was not true before, respectively in the case of falling below when the relation Ia1 * n2 < Ia2 * n1 becomes true and it was not true before, and thereby assumes a first predetermined value, wherein Ia1 represents the first analog input signal and Ia2 the second analog input signal and n1 and n2 are positive integers.
A multi-pane insulating glazing unit comprising a first pane, a second pane and a between-pane space, wherein the first pane or the second pane comprises a transparent substrate having two generally opposed major surfaces, wherein a multiple cavity low-emissivity coating is provided on the major surface exposed to the between-pane space, a cavity being a region between two adjacent infrared-reflection film regions, the coating comprising, in sequence from said desired major surface outwardly: a) a first transparent dielectric film region; b) a first infrared-reflection film region; c) a second transparent dielectric film region; d) a second infrared-reflection film region; e) a third transparent dielectric film region; f) a third infrared-reflection film region; g) a fourth transparent dielectric film region; wherein the coating has a metal/dielectric ratio of at least 0.2 and yet the insulating glazing unit has a visible transmittance of 0.65 or more, the metal/dielectric ratio being defined as the combined thickness of the first, second, and third infrared-reflection film regions divided by the combined thickness of the first, second, third, and fourth transparent dielectric film regions, the coating having a primary dielectric-region ratio of less than 0.75, the primary dielectric-region ratio being defined as the thickness of the first transparent dielectric film region divided by the thickness of the fourth transparent dielectric film region. a) a first transparent dielectric film region; b) a first infrared-reflection film region; c) a second transparent dielectric film region; d) a second infrared-reflection film region; e) a third transparent dielectric film region; f) a third infrared-reflection film region; g) a fourth transparent dielectric film region;
Door lock assembly for being arranged at a door, comprising a cylinder housing adapted for secure attachment to a door, a first cylinder body located at least partially within said cylinder housing, a first rotating member located at least partially within the first cylinder body and selectively rotatable with respect to the first cylinder body, the first rotating member including a first key receptacle, a driving pin coupled to the first rotating member and configured to rotate with rotation of the first rotating member and operable to rotate and move a latch between two positions including a door locked position and an door unlocked position, and a first locking device (32, 33) preventing rotation of the first rotating member with respect of the first cylinder body in the absence of an appropriate key, and allowing rotation of the first rotating member with respect to the first cylinder body upon the insertion of an appropriate key in the first key receptacle, said door lock assembly further comprising at least one of said cylinder housing and said cylinder body is configured to prevent rotation of said first cylinder body within said cylinder housing, said first cylinder body is adapted for axial movement in respect to said cylinder housing, said door lock assembly further comprising a second locking device (40, 41; 50, 51) having a first blocking state in which the second locking device prevents axial movement of said first cylinder body, and a second released state in which said second locking device (40, 41; 50, 51), allows axial movement of said first cylinder body such that said first cylinder body is axially movable from the interior of said cylinder housing to enable rotation of said first cylinder body in relation to said cylinder housing together with the first rotating member to cause the driving pin to rotate between said door locked position and said door unlocked position.
A driving mechanism adapted for use in a fastener driving tool (10, 401), said driving mechanism comprising: (a) a hollow cylinder (14, 405) comprising a cylindrical wall (70, 451) and having a movable piston (80, 458) therewithin, said hollow cylinder having a first end and a second, opposite end, said hollow cylinder containing a displacement volume (76, 457) created by a stroke of said piston; and (b) a guide body (36, 421) that is substantially adjacent to the second end of said cylinder, said guide body having a receiving end, an exit end (30, 417), and a passageway (98, 494) therebetween, said receiving end being proximal to said second end of the cylinder, said guide body being configured to receive a fastener that is to be driven from said exit end; and (c) a driver member (90, 490) in mechanical communication with said piston at a third end of said driver member, said driver member having a fourth, opposite end that is sized and shaped to push said fastener from said exit end of the guide body, wherein said passageway of the guide body allows said driver member to pass therethrough toward said exit end during a driving stroke and toward said receiving end during a return stroke, said driver member, when at a driven position, protruding toward said exit end of the guide body after said piston moves toward the second end of said cylinder, and said driver member, when at a ready position, being withdrawn into said guide body after said piston moves toward the first end of said cylinder, characterized in that said cylinder is the sole pressurized cylinder of the driving mechanism; and in that the driving mechanism is further comprising (d) a main storage chamber (74, 454) substantially surrounding at least a portion of said cylinder and in fluidic communication with said displacement volume of the cylinder, at least one piston seal (86, 486) that acts to retain a substantial majority of a pressurized gas within said main storage chamber and said displacement volume, wherein said main storage chamber and said displacement volume are charged with [a] said pressurized gas during all portions of an operating cycle; and (e) a lifter member (100, 400) that, under first predetermined conditions, moves in a first direction which causes said driver member to move from.its driven position toward its ready position; wherein said cylinder and piston act as a gas spring, under second predetermined conditions, to move said driver member from its ready position toward its driven position, using said pressurized gas of both said main storage chamber and said displacement volume acting on said piston, while said driver member's fourth end contacts said fastener and moves the fastener from said exit end of said guide body.
A process for manufacturing an austenitic stainless steel comprising, in sequence: a) feeding iron-bearing material into a melting furnace and melting the iron-bearing material into molten metal; b) introducing elements selected from the group consisting of Al and Mg into the molten metal to react with dissolved oxygen in the molten metal to form fine oxide dispersoids comprising Mg oxide and/or Al oxide compounds in the molten metal; c) maintaining the molten metal at a temperature above a liquidus temperature of the molten metal and, after terminating the introducing of elements of step b, introducing one or more metal grain refiner elements selected from the group consisting of Hf, Nb, Ti, and Zr into the molten metal to precipitate metal nitrides of the metal grain refiner elements onto the oxide dispersoids to yield a molten metal containing the metal nitrides; and d) cooling the molten metal with said metal nitrides therein to a temperature below the solidus temperature of the molten metal to form solidified austenitic stainless steel. a) feeding iron-bearing material into a melting furnace and melting the iron-bearing material into molten metal; b) introducing elements selected from the group consisting of Al and Mg into the molten metal to react with dissolved oxygen in the molten metal to form fine oxide dispersoids comprising Mg oxide and/or Al oxide compounds in the molten metal; c) maintaining the molten metal at a temperature above a liquidus temperature of the molten metal and, after terminating the introducing of elements of step b, introducing one or more metal grain refiner elements selected from the group consisting of Hf, Nb, Ti, and Zr into the molten metal to precipitate metal nitrides of the metal grain refiner elements onto the oxide dispersoids to yield a molten metal containing the metal nitrides; and d) cooling the molten metal with said metal nitrides therein to a temperature below the solidus temperature of the molten metal to form solidified austenitic stainless steel.
A server device for facilitating overlay network communications, comprising a database portion configured to store information regarding overlay network devices within an underlay network environment; an overlay device management portion configured to communicate with overlay devices and to provide operation information to the overlay devices; an underlay network communication portion configured to communicate with at least one underlay network device at least to facilitate communications between a mobile station and a selected overlay device, characterized by the underlay network communication portion being configured to provide software updates to the mobile station for enabling the mobile station to selectively communicate with the selected overlay device.
A method for the preparation of an amidated polymer, said method comprising the steps of: a) providing a homopolymer or copolymer comprising monomeric units; wherein at least 2 monomeric units having an ester-containing side chain are adjacent to each other; b) reacting said polymer of step a) with a guanidine-based catalyst and a reactant; said reactant having at least one amine moiety and a hydroxy moiety or a thiol moiety; c) obtaining said amidated polymer. a) providing a homopolymer or copolymer comprising monomeric units; wherein at least 2 monomeric units having an ester-containing side chain are adjacent to each other; b) reacting said polymer of step a) with a guanidine-based catalyst and a reactant; said reactant having at least one amine moiety and a hydroxy moiety or a thiol moiety; c) obtaining said amidated polymer.
A vaccine composition, comprising: a) an immunogenically active peptide fragment of the lndoleamine 2,3-dioxygenase of SEQ ID NO:1, consisting of upto 25 consecutive amino acids of SEQ ID NO: 1 which comprise the sequence of SEQ ID NO: 6; and b) an adjuvant for use as a medicament. a) an immunogenically active peptide fragment of the lndoleamine 2,3-dioxygenase of SEQ ID NO:1, consisting of upto 25 consecutive amino acids of SEQ ID NO: 1 which comprise the sequence of SEQ ID NO: 6; and b) an adjuvant
A system for storing and retrieving packages, comprising: a drone having a frame, at least one propeller for generating aerodynamic lift, an article containment area having a bottom formed by a dynamic support surface, enabling movement of an article into and out of said article containment area and supporting the article from the bottom while the article is in said article containment area of the drone, a first coupling element above the article containment area and docking cones (52, 54, 56, 58); and a docking station for the drone, comprising a shelf for a package, a second coupling element for mating with the first coupling element and for allowing the drone to pivot down about the second coupling element, the docking station further including receptacles in the shelf for receiving the docking cones (52, 54, 56, 58), such that the dynamic support surface of the article containment area aligns with the shelf. a drone having a frame, at least one propeller for generating aerodynamic lift, an article containment area having a bottom formed by a dynamic support surface, enabling movement of an article into and out of said article containment area and supporting the article from the bottom while the article is in said article containment area of the drone, a first coupling element above the article containment area and docking cones (52, 54, 56, 58); and a docking station for the drone, comprising a shelf for a package, a second coupling element for mating with the first coupling element and for allowing the drone to pivot down about the second coupling element, the docking station further including receptacles in the shelf for receiving the docking cones (52, 54, 56, 58), such that the dynamic support surface of the article containment area aligns with the shelf.
A rubber composition comprising: 5 to 20 parts by mass of a terpene resin having a weight-average molecular weight of 500 to 4,000, 5 to 30 parts by mass of a liquid rubber and/or a liquid resin having a weight-average molecular weight of 100 to 4,000, and 95 to 160 parts by mass of silica, based on 100 parts by mass of a diene rubber, wherein a volume change rate of the rubber composition measured in accordance with JIS K 6258 after having been dipped in toluene of 40°C for 24 hours is of 220 to 270%. 5 to 20 parts by mass of a terpene resin having a weight-average molecular weight of 500 to 4,000, 5 to 30 parts by mass of a liquid rubber and/or a liquid resin having a weight-average molecular weight of 100 to 4,000, and 95 to 160 parts by mass of silica, based on 100 parts by mass of a diene rubber, wherein a volume change rate of the rubber composition measured in accordance with JIS K 6258 after having been dipped in toluene of 40°C for 24 hours is of 220 to 270%.
Roll stand for rolling a metallic material, with two work rolls which are mounted in the roll stand by means of respective work roll chocks, wherein axial displacing means, by which the work rolls can be displaced in the direction of the longitudinal axis thereof, are arranged, wherein at least one work roll locking means, by which the work roll chocks are lockable and unlockable in the roll stand, are arranged and wherein rotation securing means, by which the axial displacing means can be prevented from rotation about the longitudinal axis of the work rolls, are arranged, and wherein bending means, which comprise a bending block and by which a bending moment can be applied to the work rolls, are arranged, characterised in that the work roll locking means, the rotation securing means and the axial displacing means are fixedly connected with the bending block.
A method implemented in a transmission point, TP, (108, 110, 112) supporting coordinated multiple point transmission and reception, CoMP, the method comprising: transmitting, to a user equipment, UE, (114, 116, 118) data in a physical downlink shared channel, PDSCH; and transmitting a reference signal to the UE (114, 116, 118), wherein a union of resource elements, REs, allocated for reference signals transmitted from a subset of a plurality of TPs (108, 110, 112) in a CoMP set are excluded from resource mapping for transmitting the data to the UE (114, 116, 118), and wherein the subset of the plurality of TPs (108, 110, 112) in the CoMP set is a measurement set. transmitting, to a user equipment, UE, (114, 116, 118) data in a physical downlink shared channel, PDSCH; and transmitting a reference signal to the UE (114, 116, 118), wherein a union of resource elements, REs, allocated for reference signals transmitted from a subset of a plurality of TPs (108, 110, 112) in a CoMP set are excluded from resource mapping for transmitting the data to the UE (114, 116, 118), and wherein the subset of the plurality of TPs (108, 110, 112) in the CoMP set is a measurement set.
An apparatus for generating X-rays, comprising: - an X-ray source; - a power supply; - a processing unit; wherein, the power supply is configured to produce a voltage; wherein, the X-ray source comprises a cathode and an anode, wherein the cathode is positioned relative to the anode, and the cathode and anode are operable such that electrons emitted from the cathode interact with the anode with energies corresponding to the voltage, and wherein the electrons interact with the anode to generate X-rays, wherein, the processing unit is configured to control the X-ray source, such that a plurality of first X-ray pulses is generated each having a first X-ray flux, wherein the first X-ray pulses are temporally separated from each other; wherein, the processing unit is configured to control the X-ray source, such that at least one second X-ray pulse is generated having a second X-ray flux that is substantially less than the first X-ray flux; wherein, an energy spectrum of the X-rays in the plurality of first X-ray pulses is substantially the same as an energy spectrum of the X-rays in the at least one second X-ray pulse; and wherein, the processing unit is configured such that the at least one second X-ray pulse is generated temporally between two consecutive pulses of the first X-ray pulses characterized in that the X-ray source comprises a switch configured to inhibit the interaction of electrons between the cathode and the anode and the processing unit is configured to control the X-ray source by controlling the switch. - an X-ray source; - a power supply; - a processing unit;
Hardener composition for an addition-polymerisation-curable synthetic fixing mortar system for embedding anchoring means in mortar in holes or crevices, wherein the hardener composition includes oligomeric siloxanes having on average per molecule at least one organic radical that carries one or more secondary and/or primary amino and/or thiol groups that react with isocyanate or epoxy groups in the addition reaction and having on average per molecule one or more hydrolysable groups, and, in addition, can include one or more further customary additives.
A method for producing glycerol mono(meth)acrylate, characterized in that 2,2-dimethyl-1,3-dioxolan-4-yl methyl (meth)acrylate is reacted with methanol in the presence of an acidic silicate catalyst, wherein the silicate is a sheet silicate or a mixture of sheet silicates selected from the group consisting of montmorillonite, kaolinite, hectorite, halloysite and bentonite, and wherein the reaction is performed in anhydrous manner and in that the product is anhydrous glycerol mono(meth)acrylate. wherein the silicate is a sheet silicate or a mixture of sheet silicates selected from the group consisting of montmorillonite, kaolinite, hectorite, halloysite and bentonite, and wherein the reaction is performed in anhydrous manner and in that the product is anhydrous glycerol mono(meth)acrylate.
A water-quality monitoring system for monitoring quality of water in an aquatic environment, comprising: a chemical indicator wheel designed and configured to be submerged in the water of the aquatic environment during monitoring of changes in levels of one or more constituents of the water, said chemical indicator wheel including: a holder having a rotational axis; and a plurality of chemical indicators fixedly supported by said holder, wherein said plurality of chemical indicators are configured to continuously undergo optically detectable changes in response to changes in levels of corresponding respective differing constituents of the water; and a monitoring unit that includes: an optical reader configured to acquire optical readings of each of said plurality of indicators; and a drive system configured to drive said chemical indicator wheel to at least one reading position for each of said plurality of chemical indicators, wherein said optical reader can take a reading of each of said plurality of chemical indicators while the chemical indicator wheel is submerged in the water of the aquatic environment. a chemical indicator wheel designed and configured to be submerged in the water of the aquatic environment during monitoring of changes in levels of one or more constituents of the water, said chemical indicator wheel including: a holder having a rotational axis; and a plurality of chemical indicators fixedly supported by said holder, wherein said plurality of chemical indicators are configured to continuously undergo optically detectable changes in response to changes in levels of corresponding respective differing constituents of the water; and a holder having a rotational axis; and a plurality of chemical indicators fixedly supported by said holder, wherein said plurality of chemical indicators are configured to continuously undergo optically detectable changes in response to changes in levels of corresponding respective differing constituents of the water; and a monitoring unit that includes: an optical reader configured to acquire optical readings of each of said plurality of indicators; and a drive system configured to drive said chemical indicator wheel to at least one reading position for each of said plurality of chemical indicators, wherein said optical reader can take a reading of each of said plurality of chemical indicators while the chemical indicator wheel is submerged in the water of the aquatic environment. an optical reader configured to acquire optical readings of each of said plurality of indicators; and a drive system configured to drive said chemical indicator wheel to at least one reading position for each of said plurality of chemical indicators, wherein said optical reader can take a reading of each of said plurality of chemical indicators while the chemical indicator wheel is submerged in the water of the aquatic environment.