mhurhangee/ep-ind-claims huggingface dataset:
A marking control device for controlling a marking device that marks a target image on a thermoreversible recording medium by applying a laser beam thereto to produce a solidly filled image by the sequential irradiation of reciprocally scanned lines which produce parallel or approximately parallel and adjoining marked lines, the marking control device comprising: a marking position determination unit configured to determine a marking position of each of the adjoining marking lines; a marking order determination unit configured to determine a marking order of the sequential marking lines such that they reciprocate; an adjusting unit configured either: to slant each successive current marking line relative to the previous marking line by making a first distance, between the ending point of the previous marking line and the starting point of the current marking line, longer than a second distance, between the starting point of the previous marking line and the ending point of the current marking line; or, with parallel marking lines, either to make the laser output power of the laser beam applied to each successive current marking line after the first one to be lower at its starting point than at its ending point, or else to make the scanning speed of each successive current marking line after the first one decrease from its starting point to its ending point; and a marking instruction generator unit configured to generate a set of marking instructions including the respective marking positions of the first and second marking lines and the marking order of the first and second marking lines. a marking position determination unit configured to determine a marking position of each of the adjoining marking lines; a marking order determination unit configured to determine a marking order of the sequential marking lines such that they reciprocate; an adjusting unit configured either: to slant each successive current marking line relative to the previous marking line by making a first distance, between the ending point of the previous marking line and the starting point of the current marking line, longer than a second distance, between the starting point of the previous marking line and the ending point of the current marking line; or, with parallel marking lines, either to make the laser output power of the laser beam applied to each successive current marking line after the first one to be lower at its starting point than at its ending point, or else to make the scanning speed of each successive current marking line after the first one decrease from its starting point to its ending point; and a marking instruction generator unit configured to generate a set of marking instructions including the respective marking positions of the first and second marking lines and the marking order of the first and second marking lines.
A rigid surface covering plastic material, comprising: a base layer which comprising: 100 parts by weight of PVC resin, 10∼60 parts by weight of solid plasticizer and 60-150 parts by weight of additive, characterized by the base layer further comprises 0.1-10 parts by weight of liquid plasticizer, the solid plasticizer is at least one of a green polymer with a melting point of 50-150 °C and Ethylene Propylene Diene Monomer, the green polymer with a melting point of 50-150 °C is at least one of modified thermoplastic polyurethane, modified polyurethane modified Polypropylene and modified vinyl polymer, and the base layer comprises a middle layer and a bottom layer, the middle layer comprises 100 parts by weight of PVC resin, 10-60 parts by weight of solid plasticizer and 125-400 parts by weight of additive, the bottom layer comprises 100 parts by weight of PVC resin, 10-60 parts by weight of solid plasticizer and 60-350 parts by weight of additive.
A device for separating liquid from a gas stream within a liquid injected compressor or liquid injected vacuum pump, said device (1; 101) comprising a first vessel comprising a first bottom plate, a first lateral wall comprising an inlet (2; 102) fluidly connected with a compressed gas outlet, or with an outlet of the vacuum pump, and a lid comprising an outlet (5; 105), the device further comprising: - a first separation means comprising a first and a second liquid separation area (12a and 12b), said first and second liquid separation area (12a, 12b) being in fluid communication with the inlet; whereby each of the first and second liquid separation area (12a, 12b) comprises a first plate (13a, 13b) onto which a circular wall (14a, 14b) is mounted, whereby a first and a second fluid channel (15a, 15b) is created between each of said circular wall (14a, 14b) and the first lateral wall; - a second separation means provided in each of the first and second liquid separation area (12a, 12b), said second separation means comprising at least a cyclone mounted therein; - a third separation means comprising at least a filter mounted therein, whereby said filter is fluidly connected to one of said cyclones and whereby the third separation means is in fluid communication with the outlet (5; 105); - an inlet channel being in fluid communication with said inlet, the inlet channel comprising a fin type of structure for dividing the gas flowing through the inlet into two flows characterized in that - said inlet channel comprises a top panel and a bottom panel having one end adapted to be mounted onto the first lateral wall, whereby at least said top panel is creating a slope, having the highest point onto the first lateral wall and the lowest point at the opposite end. - a first separation means comprising a first and a second liquid separation area (12a and 12b), said first and second liquid separation area (12a, 12b) being in fluid communication with the inlet; whereby each of the first and second liquid separation area (12a, 12b) comprises a first plate (13a, 13b) onto which a circular wall (14a, 14b) is mounted, whereby a first and a second fluid channel (15a, 15b) is created between each of said circular wall (14a, 14b) and the first lateral wall; - a second separation means provided in each of the first and second liquid separation area (12a, 12b), said second separation means comprising at least a cyclone mounted therein; - a third separation means comprising at least a filter mounted therein, whereby said filter is fluidly connected to one of said cyclones and whereby the third separation means is in fluid communication with the outlet (5; 105); - an inlet channel being in fluid communication with said inlet, the inlet channel comprising a fin type of structure for dividing the gas flowing through the inlet into two flows - said inlet channel comprises a top panel and a bottom panel having one end adapted to be mounted onto the first lateral wall, whereby at least said top panel is creating a slope, having the highest point onto the first lateral wall and the lowest point at the opposite end.
A seat belt retractor comprising: a spool that retracts a webbing that restrains an occupant; a base frame that rotatably houses the spool; and a pretensioner that retracts the webbing to take up the slack therein in an emergency, wherein the pretensioner includes a rotor that is connected coaxially with the spool and that has a plurality of engaging teeth formed on the outer periphery thereof, a power generating means that is capable of ejecting a projectile that engages with the engaging teeth and rotates the rotor, and a cover member that provides for an outline along which the projectile may be moved, wherein the base frame includes a first end and a second end face opposing to each other, and a side face connecting the first end face and the second end face, and wherein the cover member at least houses the rotor, characterized in that the cover member, which is disposed inside the base frame, is disposed between the first end face and the second end face.
An overhanging element comprising a basis provided for being applied on a surface raising pedestal, which basis is provided with a window which extend in a longitudinal manner in the basis, which basis comprises at a first longitudinal end a stop member which extend substantially perpendicular with respect to the basis, which stop member is formed by at least one flap (6-1, 6-2), characterized in that said window being dimensioned such that a wing which is part of an insert part applied on the pedestal can cross it and thus guide a translatory movement of the overhanging element with respect to the pedestal on which it is applied, which flap is provided with a notch (7-1, 7-2) which extends over the height of the flap, the notch having a depth such as to enable a bending and/or a removal of a section of the flap situated between the notch and a distal end of the flap.
A method of comparing performance of a plurality of packaging materials capable of being used in a load wrapping apparatus of the type configured to wrap a load on a load support through relative rotation between a packaging material dispenser and the load support, the method comprising: determining dimensions for a representative load; determining a load containment force requirement for the representative load; characterized in that the method further comprises: with a computer, simulating, for each of a plurality of packaging materials, a wrap operation performed on the representative load using such packaging material and meeting the load containment force requirement; and determining, for each of the plurality of packaging materials, a comparative performance parameter for such packaging material based upon the simulation of the wrap operation using such packaging material. determining dimensions for a representative load; determining a load containment force requirement for the representative load; characterized in that the method further comprises: with a computer, simulating, for each of a plurality of packaging materials, a wrap operation performed on the representative load using such packaging material and meeting the load containment force requirement; and determining, for each of the plurality of packaging materials, a comparative performance parameter for such packaging material based upon the simulation of the wrap operation using such packaging material. with a computer, simulating, for each of a plurality of packaging materials, a wrap operation performed on the representative load using such packaging material and meeting the load containment force requirement; and determining, for each of the plurality of packaging materials, a comparative performance parameter for such packaging material based upon the simulation of the wrap operation using such packaging material.
An adapter element configured for use in a solenoid valve assembly (20, 30), the adapter element comprising: a housing including: an inlet channel extending between a bottom of the housing and a top thereof; an outlet channel extending between the bottom of the housing and the top thereof; a turbine receptacle provided in a side of the housing adjacent to the outlet channel; a turbine generator configured for insertion into the turbine receptacle and including: an impeller positioned in the outlet channel such that the impeller rotates when water flows through the outlet channel; a rotor connected to the impeller that rotates with the impeller, the rotor including a plurality of magnets; and a conductor coil formed around the impeller such that rotation of the plurality of magnets induces an electric current in the coil; and at least one electrical lead connected to the conductor coil to provide an external electrical connection. a housing including: an inlet channel extending between a bottom of the housing and a top thereof; an outlet channel extending between the bottom of the housing and the top thereof; a turbine receptacle provided in a side of the housing adjacent to the outlet channel; an inlet channel extending between a bottom of the housing and a top thereof; an outlet channel extending between the bottom of the housing and the top thereof; a turbine receptacle provided in a side of the housing adjacent to the outlet channel; a turbine generator configured for insertion into the turbine receptacle and including: an impeller positioned in the outlet channel such that the impeller rotates when water flows through the outlet channel; a rotor connected to the impeller that rotates with the impeller, the rotor including a plurality of magnets; and a conductor coil formed around the impeller such that rotation of the plurality of magnets induces an electric current in the coil; and at least one electrical lead connected to the conductor coil to provide an external electrical connection. an impeller positioned in the outlet channel such that the impeller rotates when water flows through the outlet channel; a rotor connected to the impeller that rotates with the impeller, the rotor including a plurality of magnets; and a conductor coil formed around the impeller such that rotation of the plurality of magnets induces an electric current in the coil; and at least one electrical lead connected to the conductor coil to provide an external electrical connection.
An infill material for synthetic turfs comprising: - a stabilizing infill comprising a predetermined quantity per unit surface area of vegetable material of rachis of cereal ear not coated with a film, or layer, of coating material; - a performance infill positioned above said stabilizing infill and constituted of polymeric material in granular form in a predetermined quantity per unit surface area; said infill material being characterized in that said predetermined quantity per unit surface area of vegetable material of rachis of cereal ear not coated with a film, or layer, of coating material is set between 2 kg/m 2 and 15 kg/m 2; and in that said polymeric material has elastomeric properties. - a stabilizing infill comprising a predetermined quantity per unit surface area of vegetable material of rachis of cereal ear not coated with a film, or layer, of coating material; - a performance infill positioned above said stabilizing infill and constituted of polymeric material in granular form in a predetermined quantity per unit surface area; said infill material being characterized in that said predetermined quantity per unit surface area of vegetable material of rachis of cereal ear not coated with a film, or layer, of coating material is set between 2 kg/m 2 and 15 kg/m 2; and in that said polymeric material has elastomeric properties.
Wind turbine, comprising an electrical installation (5, 6) to transform wind energy into electrical energy, whereby the electrical installation (5, 6) produces waste heat, a waste heat recovery system to transform at least a part of the waste heat into electrical energy, a cooling system with a cooling circuit to cool the electrical installation (5, 6) that produces waste heat, whereby the waste heat recovery system is connected to the cooling circuit of the wind turbine in a way that thermal energy is transferred from the cooling circuit to the waste heat recovery system, and whereby the waste heat recovery system comprises - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system, - a turbine to expand the fluid in the circuit of the waste heat recovery system, and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy, characterized in that the fluid is carbon dioxide, and the process to transform the thermal energy into electrical energy is employing a Carbon Transcritical Power Cycle. an electrical installation (5, 6) to transform wind energy into electrical energy, whereby the electrical installation (5, 6) produces waste heat, a waste heat recovery system to transform at least a part of the waste heat into electrical energy, a cooling system with a cooling circuit to cool the electrical installation (5, 6) that produces waste heat, whereby the waste heat recovery system is connected to the cooling circuit of the wind turbine in a way that thermal energy is transferred from the cooling circuit to the waste heat recovery system, and whereby the waste heat recovery system comprises - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system, - a turbine to expand the fluid in the circuit of the waste heat recovery system, and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy, - a fluid circuit to transport thermal energy, whereby the thermal energy of the cooling circuit of the wind turbine is transferred to a fluid in the fluid circuit of the waste heat recovery system, - a turbine to expand the fluid in the circuit of the waste heat recovery system, and to transform thermal energy of the fluid into rotational energy of the turbine, and - a waste heat recovery generator to transform the rotational energy of the turbine into electrical energy,
A method for the production of an aqueous organic haloamine solution for antibiotic, antiseptic, and disinfection applications, the method comprising the steps of: (i) preparing an organic amine solution, the organic amine solution comprising an organic amine, the organic amine being an amino acid, selected from the group consisting of taurine, glycine and alanine, at least one halide containing salt, and optionally a further acid additive, the pH of the organic amine solution prior to the electrolyzing step being less than 7; and (ii) electrolyzing the organic amine solution in an electrolytic cell, thereby producing the organic haloamine solution. (i) preparing an organic amine solution, the organic amine solution comprising an organic amine, the organic amine being an amino acid, selected from the group consisting of taurine, glycine and alanine, at least one halide containing salt, and optionally a further acid additive, the pH of the organic amine solution prior to the electrolyzing step being less than 7; and (ii) electrolyzing the organic amine solution in an electrolytic cell, thereby producing the organic haloamine solution.
A device for generating oxygen comprising at least one reaction chamber housing a composition for generating oxygen, the composition comprising a combination of constituents consisting of at least one oxygen source, at least one ionic liquid, and at least one metal salt, - means for maintaining at least one of the oxygen source, the ionic liquid and the metal salt physically separated from the remaining constituents, - means for establishing physical contact of the oxygen source, the ionic liquid and the metal salt, and - means for allowing oxygen to exit the reaction chamber, wherein the metal salt comprises a single metal or two or more different metals, and an organic and/or an inorganic anion, and wherein the oxygen source comprises a peroxide compound. at least one reaction chamber housing a composition for generating oxygen, the composition comprising a combination of constituents consisting of at least one oxygen source, at least one ionic liquid, and at least one metal salt, - means for maintaining at least one of the oxygen source, the ionic liquid and the metal salt physically separated from the remaining constituents, - means for establishing physical contact of the oxygen source, the ionic liquid and the metal salt, and - means for allowing oxygen to exit the reaction chamber, - means for maintaining at least one of the oxygen source, the ionic liquid and the metal salt physically separated from the remaining constituents, - means for establishing physical contact of the oxygen source, the ionic liquid and the metal salt, and - means for allowing oxygen to exit the reaction chamber, wherein the metal salt comprises a single metal or two or more different metals, and an organic and/or an inorganic anion, and wherein the oxygen source comprises a peroxide compound.
Honing method for machining the internal surface of a bore in a workpiece with the aid of at least one honing operation, in particular for honing cylinder faces during the production of cylinder blocks or cylinder liners for reciprocating piston engines, wherein, during a honing operation, an expandable honing tool is moved up and down within the bore in order to produce a reciprocating movement in the axial direction of the bore and at the same time is rotated in order to produce a rotational movement combined with the reciprocating movement, wherein a bore shape deviating from the circular cylinder shape is produced, characterized in that a bottle-shaped bore is produced, said bore having, following a bore inlet, a first bore section with a first diameter, a second bore section with a second diameter, which is larger than the first diameter, away from the bore inlet, and a transition section with a continuous transition from the first to the second diameter between the first and the second bore section, wherein, during at least one honing operation, use is made of an annular tool (200, 300, 400) which has at least one annular cutting group (220, 320, 420) having three or more cutting material bodies which are distributed about the circumference of a tool body and radially infeedable by shifting in the radial direction during the infeeding, and are designed as honing segments which are wide in the circumferential direction and are narrow in the axial direction, wherein an axial length of the honing segments, as measured in the axial direction, is smaller than the width measured in the circumferential direction, and the axial length of the cutting region equipped with cutting material bodies is smaller than the effective outside diameter of the honing tool.
An energy storage device which has a negative active material layer containing particulate amorphous carbon, wherein a distribution curve of differential pore volume in the negative active material layer has a peak appearing within a range from 0.1 μm to 2 μm inclusive and the differential pore volume at the peak is 0.9 cm 3 /g or more, and characterized in that the average particle size D50 of the particulate amorphous carbon is 1.0 μm or more and 3.0 μm or less. wherein a distribution curve of differential pore volume in the negative active material layer has a peak appearing within a range from 0.1 μm to 2 μm inclusive and the differential pore volume at the peak is 0.9 cm 3 /g or more, and characterized in that the average particle size D50 of the particulate amorphous carbon is 1.0 μm or more and 3.0 μm or less.