mhurhangee/ep-ind-claims huggingface dataset:
A device for replacing the printing roller of a printing unit, preferably for flexographic printing machines, comprising: - a work station for a first working printing roller associated with a first support spindle; - a holding station (3, 7) for a second held printing roller associated with a second support spindle; - a removal station (7, 3) for removing a printing roller (110, 130) from a support spindle (13, 11); - said work station being arranged in a substantially intermediate position between said removal station and said holding station; - displacement means for displacing said first support spindle from said work station to said removal station and for displacing said second support spindle from said holding station to said work station; said displacement means comprising two guides each of which extends from said work station as far as said holding station (3, 7) and said removal station (7, 3), respectively, said first support spindle and second support spindle being slidably connected to said guides so as to allow the simultaneous displacement of said first printing roller from said work station to said removal station and of said second printing roller from said holding station to said work station, said device comprising a support structure which defines two opposite sides (96a, 96b), characterised in that said displacement means are located on a first side, said first and second printing rollers (110, 330) projecting from a second side opposite to said first side, two through-incisions are formed in said support structure, said first spindle and second spindle being each arranged so as to pass through a respective incision so that a first end (11a, 13a) of each spindle projects from said first side in order to be connected to said displacement means, while a section of said spindle projecting from said opposite side of said support structure is occupied by said printing roller (110, 130). - a work station for a first working printing roller associated with a first support spindle; - a holding station (3, 7) for a second held printing roller associated with a second support spindle; - a removal station (7, 3) for removing a printing roller (110, 130) from a support spindle (13, 11); - said work station being arranged in a substantially intermediate position between said removal station and said holding station; - displacement means for displacing said first support spindle from said work station to said removal station and for displacing said second support spindle from said holding station to said work station;
A volume hologram sheet comprising: a volume hologram layer; a substrate disposed only on one side surface of the volume hologram layer; an adhesive layer disposed between the volume hologram layer and the substrate, characterized in that the substrate is a PET film, a main component of a resin material used in the volume hologram layer is an epoxy group-containing acrylic resin, the adhesive layer is a solvent-based thermosetting adhesive layer including an aliphatic ester-based polyurethane adhesive and the volume hologram layer and the substrate are bound with a peeling strength of 25 gf/25 mm or more. a volume hologram layer; a substrate disposed only on one side surface of the volume hologram layer; an adhesive layer disposed between the volume hologram layer and the substrate, characterized in that the substrate is a PET film, a main component of a resin material used in the volume hologram layer is an epoxy group-containing acrylic resin, the adhesive layer is a solvent-based thermosetting adhesive layer including an aliphatic ester-based polyurethane adhesive and the volume hologram layer and the substrate are bound with a peeling strength of 25 gf/25 mm or more.
A method for communicating information between a vehicle and a remote terminal, the method comprising the steps of: providing at least one image frame representing at least a portion of the vehicle and/or the vehicle's surrounding; transmitting the at least one image frame from the vehicle to the remote terminal; characterized in that an encoded pattern representing predetermined information to be transmitted to the remote terminal is visible on the at least one image frame, wherein the encoded pattern is generated by a light emitting device placed in the field of view of an imaging device of the vehicle configured to capture the sensory data used for generating the at least one image frame, the method further comprising the steps of: reading, at the remote terminal, the encoded pattern visible on the at least one image frame; decoding the predetermined information from the encoded pattern read at the remote terminal. providing at least one image frame representing at least a portion of the vehicle and/or the vehicle's surrounding; transmitting the at least one image frame from the vehicle to the remote terminal; characterized in that an encoded pattern representing predetermined information to be transmitted to the remote terminal is visible on the at least one image frame, wherein the encoded pattern is generated by a light emitting device placed in the field of view of an imaging device of the vehicle configured to capture the sensory data used for generating the at least one image frame, the method further comprising the steps of: reading, at the remote terminal, the encoded pattern visible on the at least one image frame; decoding the predetermined information from the encoded pattern read at the remote terminal. reading, at the remote terminal, the encoded pattern visible on the at least one image frame; decoding the predetermined information from the encoded pattern read at the remote terminal.
An apparatus for use with a chair having a supporting surface, the apparatus comprising: a first member adapted to be placed above the supporting surface of the chair, the first member having a bottom configured to confront the supporting surface and an engagement surface opposite the bottom; a second member connected to the first member and having a bottom surface positioned in confronting relation to the engagement surface of the first member and a top surface opposite the bottom surface, the second member being connected to the first member such that at least a portion of the second member is slidable with respect to the first member; characterized in that the apparatus further comprises a first engagement member positioned on one of the engagement surface of the first member and the bottom surface of the second member, the first engagement member comprising a brushed fiber material; and a second engagement member positioned on another of the engagement surface of the first member and the bottom surface of the second member and positioned in confronting relation to the first engagement surface, the second engagement member comprising a material with a directional pattern extending in a width direction of the apparatus; wherein the first engagement member and the second engagement member engage each other to resist sliding of the second member in a forward direction relative to the first member and to permit sliding of the second member in a rearward direction. a first member adapted to be placed above the supporting surface of the chair, the first member having a bottom configured to confront the supporting surface and an engagement surface opposite the bottom; a second member connected to the first member and having a bottom surface positioned in confronting relation to the engagement surface of the first member and a top surface opposite the bottom surface, the second member being connected to the first member such that at least a portion of the second member is slidable with respect to the first member; characterized in that the apparatus further comprises a first engagement member positioned on one of the engagement surface of the first member and the bottom surface of the second member, the first engagement member comprising a brushed fiber material; and a second engagement member positioned on another of the engagement surface of the first member and the bottom surface of the second member and positioned in confronting relation to the first engagement surface, the second engagement member comprising a material with a directional pattern extending in a width direction of the apparatus; wherein the first engagement member and the second engagement member engage each other to resist sliding of the second member in a forward direction relative to the first member and to permit sliding of the second member in a rearward direction.
A medical device comprising: a monolithic wire having stored deformation energy from cold work such that a retained cold work ratio of grain length to grain width is between 10:1 and 50:1, the wire comprising between 45 wt.% and 85 wt.% iron (Fe), between 15 wt.% and 55 wt.% manganese (Mn), and an anti-corrosive alloying element comprising between 0.01 wt.% and 0.45 wt.% nitrogen, the wire consisting entirely of biodegradable material such that the wire is able to be chemically broken down in a physiological environment. a monolithic wire having stored deformation energy from cold work such that a retained cold work ratio of grain length to grain width is between 10:1 and 50:1, the wire comprising between 45 wt.% and 85 wt.% iron (Fe), between 15 wt.% and 55 wt.% manganese (Mn), and an anti-corrosive alloying element comprising between 0.01 wt.% and 0.45 wt.% nitrogen, the wire consisting entirely of biodegradable material such that the wire is able to be chemically broken down in a physiological environment.
Process for treating hair fibres, preferably human hair, comprising: (i) combing said fibres, (ii) applying vapour to said fibres, the flow rate of vapour applied being strictly less than 1 g/min, (iii) hair shaping, by heat treatment without vapour, of the hair fibres by conduction and/or by radiation, steps (ii) and (iii) being separate and not simultaneous. (i) combing said fibres, (ii) applying vapour to said fibres, the flow rate of vapour applied being strictly less than 1 g/min, (iii) hair shaping, by heat treatment without vapour, of the hair fibres by conduction and/or by radiation,
An in vitro non-invasive method for determining ovarian reserve in a patient in need thereof comprising the steps consisting of: i) extracting, in a follicular fluid sample obtained from said patient, the cell free nucleic acids and miRNAs from the biological sample and ii) determining the level of the cell free nucleic acids and/or of at least one miRNA selected from miR-30a, miR - 140, let7-b and miR574-3p in the nucleic acid extraction.
A pile-driving vehicle, comprising: - a chassis; - a movement system for moving the vehicle on a soil or the like; - a first driving apparatus for driving a first pile into the soil or the like; - a second driving apparatus for driving a second pile into the soil or the like; wherein each driving apparatus (21, 22) comprises a first member that is constrained to the chassis, a second member that is movable relative to the first member between a first position and a second position along a driving line and an actuating device for moving the second member relative to the first member, characterised in that each driving apparatus (21, 22) is adapted to push the respective pile into the soil by applying a pressing force on the pile along the driving line, in that the reaction force of the pressing force acts on the first member, is transmitted to the chassis and is balanced by the weight of the pile-driving vehicle, the movement of the second member comprising an outward stroke towards the second position, during which the actuating device pushes the second member towards the soil or the like, applying a force on the second member along the driving line, the second member being designed to transmit, to the pile to be driven in, the force along the driving line which is applied by the actuating device, said force being the pressing force, the movement of the second member comprising a return stroke towards the first position, during which the second member is moved away from the soil or the like, in that the first driving apparatus and the second driving apparatus can be operated alternately, in such a way that the outward stroke of the second member of the first driving apparatus corresponds to the return stroke of the second member of the second driving apparatus, and vice versa. - a chassis; - a movement system for moving the vehicle on a soil or the like; - a first driving apparatus for driving a first pile into the soil or the like; - a second driving apparatus for driving a second pile into the soil or the like;
A gel comprising: (a) at least 50% by weight of a volatile hydrocarbon, wherein the volatile hydrocarbon is isododecane; (b) a film former; (c) a solvent comprising an ester group; and (d) a combination of ultraviolet A and ultraviolet B sunscreen agents, wherein the UVA sunscreen agent comprises 4-tert-butyl-4'-methoxydibenzoylmethane, wherein the gel has an SPF of at least 15 according to the procedures and criteria outlined in the Food and Drug Administration proposed Amendment of Final Monograph of 2007 for sunscreen testing published in the Federal Register, vol. 72, No. 165, August 27, 2007 and a PFA of at least 5 according to the procedures and criteria outlined in the Japan Cosmetic Industry Association (JCIA) Expert Committee on Ultra-Violet Standard Protection Factor of UVA Test Method (November 15, 1996) pp 50-59, and wherein the gel is capable of drying within two minutes after topical application to skin. (a) at least 50% by weight of a volatile hydrocarbon, wherein the volatile hydrocarbon is isododecane; (b) a film former; (c) a solvent comprising an ester group; and (d) a combination of ultraviolet A and ultraviolet B sunscreen agents, wherein the UVA sunscreen agent comprises 4-tert-butyl-4'-methoxydibenzoylmethane,
A sensor comprising: a number of sensing pixels configured to detect light incident thereon, and generate respective sense currents, based on the detected light; a number of dummy pixels configured to generate respective dark currents, under a light-free condition; and a current mirror configured to receive the dark currents, and output one mirrored current to each sensing pixel, wherein each sensing pixel generates one light current, by subtracting the mirrored current from the sense current, and generates one activation signal based on the light current, and wherein the sensor further comprises a controller configured to generate an event signal based on the activation signal, CHARACTERISED IN THAT each mirrored current is an average current of the dark currents of the number of dummy pixels; and at least one of the number of dummy pixels and the number of sensing pixels are configured to be adjusted, such that a sum of dark currents of the number sensing pixels is the same as a sum of currents flowing in the number of dummy pixels. a number of sensing pixels configured to detect light incident thereon, and generate respective sense currents, based on the detected light; a number of dummy pixels configured to generate respective dark currents, under a light-free condition; and a current mirror configured to receive the dark currents, and output one mirrored current to each sensing pixel, wherein each sensing pixel generates one light current, by subtracting the mirrored current from the sense current, and generates one activation signal based on the light current, and wherein the sensor further comprises a controller configured to generate an event signal based on the activation signal, CHARACTERISED IN THAT each mirrored current is an average current of the dark currents of the number of dummy pixels; and at least one of the number of dummy pixels and the number of sensing pixels are configured to be adjusted, such that a sum of dark currents of the number sensing pixels is the same as a sum of currents flowing in the number of dummy pixels.
A method for positioning sleeves on a winding shaft of a winding machine, comprising the following steps: a) conveying a sleeve to a gripper or a slider; characterized by: b) detecting the position of the sleeve via at least one sensor; c) moving the sleeve from the gripper or slider to an endless conveyor, wherein the movement of the sleeve occurs depending on the detected position of the sleeve; d) conveying the sleeve with the endless conveyor, and e) repeating the steps a) to d) until the desired number of sleeves has been positioned on the endless conveyor. a) conveying a sleeve to a gripper or a slider; b) detecting the position of the sleeve via at least one sensor; c) moving the sleeve from the gripper or slider to an endless conveyor, wherein the movement of the sleeve occurs depending on the detected position of the sleeve; d) conveying the sleeve with the endless conveyor, and e) repeating the steps a) to d) until the desired number of sleeves has been positioned on the endless conveyor.
A winding device for a bunching device designed for winding an elongate bunched material with an adhesive strip, having a rotatably mounted winding head (15, 115), with two pivoting jaws (16, 17, 116, 117) of the winding head (15, 115) for guiding the bunched material into the center of the winding head (15, 115) and for supporting the bunched material during the winding, characterized in that two guide elements (21, 22, 121, 122) for guiding the bunched material are arranged within the winding head (15, 115) and that the guide elements (21, 22, 121, 122) are arranged at an opening (20, 120) for the introduction of the winding material into the winding head (15, 115).
A method of examining cells, comprising: introducing a plurality of cells through an input channel disposed between two buffer channels (302, 303); flowing buffer solution through said two buffer channels (302,303); maintaining laminar flow in said input channel and in said two buffer channels (302, 303) in parallel lines of flow; and examining each of said plurality of cells in an interrogation region of said input channel, to determine at least a chemical identity of each of said plurality of cells according to an analysis of spectral data of each of said plurality of cells; illuminating said plurality of cells using an imaging illumination source; characterized in that said plurality of cells are X-chromosome and Y-chromosome bearing sperm cells and a dye is used to bind to DNA of each said plurality of cells such that a total fluorescence present is a measure of a total DNA present; in that X-chromosome sperm cells are distinguished from Y-chromosome sperm cells based on their fluorescence; and in that said plurality of sperm cells are selectively killed based on some predetermined criterion. introducing a plurality of cells through an input channel disposed between two buffer channels (302, 303); flowing buffer solution through said two buffer channels (302,303); maintaining laminar flow in said input channel and in said two buffer channels (302, 303) in parallel lines of flow; and examining each of said plurality of cells in an interrogation region of said input channel, to determine at least a chemical identity of each of said plurality of cells according to an analysis of spectral data of each of said plurality of cells; illuminating said plurality of cells using an imaging illumination source; characterized in that said plurality of cells are X-chromosome and Y-chromosome bearing sperm cells and a dye is used to bind to DNA of each said plurality of cells such that a total fluorescence present is a measure of a total DNA present; in that X-chromosome sperm cells are distinguished from Y-chromosome sperm cells based on their fluorescence; and in that said plurality of sperm cells are selectively killed based on some predetermined criterion.
A method for forming a protective coat upon an article, comprising: forming a first liquid coating mixture to comprise a cross-linking agent and a polymer dissolved within a solvent, comprising: forming a first mixture to comprise the cross-linking agent and an organic solvent; and dissolving the polymer within the first mixture; applying a first coat of the first liquid coating mixture upon the article; evaporating the solvent from the first coat; adding a filler material or additional solvent to the first liquid coating mixture to form a second liquid coating mixture having a different viscosity than a viscosity of the first liquid coating mixture; applying a second coat of the second liquid coating mixture upon the first coat on the article; evaporating the solvent from the second coat; and cross-linking the polymer; wherein evaporating the solvent from the first coat precedes applying the second coat and precedes cross-linking the polymer; and wherein applying the second coat and evaporating the solvent from the second coat precedes cross-linking the polymer. forming a first liquid coating mixture to comprise a cross-linking agent and a polymer dissolved within a solvent, comprising: forming a first mixture to comprise the cross-linking agent and an organic solvent; and dissolving the polymer within the first mixture; forming a first mixture to comprise the cross-linking agent and an organic solvent; and dissolving the polymer within the first mixture; applying a first coat of the first liquid coating mixture upon the article; evaporating the solvent from the first coat; adding a filler material or additional solvent to the first liquid coating mixture to form a second liquid coating mixture having a different viscosity than a viscosity of the first liquid coating mixture; applying a second coat of the second liquid coating mixture upon the first coat on the article; evaporating the solvent from the second coat; and cross-linking the polymer; wherein evaporating the solvent from the first coat precedes applying the second coat and precedes cross-linking the polymer; and wherein applying the second coat and evaporating the solvent from the second coat precedes cross-linking the polymer.
A weld metal, consisting of: C: 0.05-0.12% (means mass%, the same applies to the following); Si: 0.10-0.35%; Mn: 0.65-0.90%; Cr: 1.85-2.50%; Mo: 0.80-1.20%; V: 0.25-0.50%; Nb: 0.010-0.050%; B: 0.0005-0.0010%; N: 0.025% or less (exclusive of 0%); and O: 0.025-0.060%, respectively, optionally, at least one group out of groups (a)-(d) below as other elements: (a) at least one element out of Cu: 1.00% or less (exclusive of 0%) and Ni: 1.00% or less (exclusive of 0%); (b) W: 0.50% or less (exclusive of 0%); (c) Al: 0.030% or less (exclusive of 0%); and (d) Ti: 0.020% or less (exclusive of 0%), with the remainder consisting of iron and inevitable impurities, wherein a value β defined by the expression below is 0.00193 or less: Value β = C × Mo / 96 + V / 51 where, [Mo] and express the content (mass%) of C, Mo and V in the weld metal, respectively. C: 0.05-0.12% (means mass%, the same applies to the following); Si: 0.10-0.35%; Mn: 0.65-0.90%; Cr: 1.85-2.50%; Mo: 0.80-1.20%; V: 0.25-0.50%; Nb: 0.010-0.050%; B: 0.0005-0.0010%; N: 0.025% or less (exclusive of 0%); and O: 0.025-0.060%, respectively, (a) at least one element out of Cu: 1.00% or less (exclusive of 0%) and Ni: 1.00% or less (exclusive of 0%); (b) W: 0.50% or less (exclusive of 0%); (c) Al: 0.030% or less (exclusive of 0%); and (d) Ti: 0.020% or less (exclusive of 0%),