mhurhangee/ep-ind-claims huggingface dataset:
A vapor-liquid separator, comprising: a substantially cylindrical chamber having an inlet opening operative for purposes of receiving there at a flow of a vapor-liquid mixture, an outlet opening operative for purposes of exhausting therethrough said vapor-liquid mixture, a wall, including an inner surface and an outer surface, said inner surface being operative to define a passageway that extends longitudinally between said inlet opening and said outlet opening, wherein at least one slot is formed through both said inner surface and said outer surface of said wall, and wherein the inlet opening is substantially the size of a cross section of the chamber, wherein the outlet opening being substantially the size of a cross section of the chamber, and wherein said chamber is suitably configured so as to be operative to direct the flow of said vapor-liquid mixture to said outlet opening, wherein a plurality of spinner blades is suitably disposed within said chamber so as to be positioned between said inlet opening and said slot, and suitably configured so as to be operative to induce the flow of said vapor-liquid mixture to spin, such as to thereby centrifugally force droplets of liquid that are entrained in the flow of said vapor-liquid mixture that is forced up against said inner surface of said wall and then through said slot; characterized in that a mesh (214, 216, 218) is suitably located outside said chamber such as to be disposed in the path of flow of said droplets of liquid of said vapor-liquid mixture that are forced to flow through said slot. a substantially cylindrical chamber having an inlet opening operative for purposes of receiving there at a flow of a vapor-liquid mixture, an outlet opening operative for purposes of exhausting therethrough said vapor-liquid mixture, a wall, including an inner surface and an outer surface, said inner surface being operative to define a passageway that extends longitudinally between said inlet opening and said outlet opening, wherein at least one slot is formed through both said inner surface and said outer surface of said wall, and wherein the inlet opening is substantially the size of a cross section of the chamber, wherein the outlet opening being substantially the size of a cross section of the chamber, and wherein said chamber is suitably configured so as to be operative to direct the flow of said vapor-liquid mixture to said outlet opening, wherein a plurality of spinner blades is suitably disposed within said chamber so as to be positioned between said inlet opening and said slot, and suitably configured so as to be operative to induce the flow of said vapor-liquid mixture to spin, such as to thereby centrifugally force droplets of liquid that are entrained in the flow of said vapor-liquid mixture that is forced up against said inner surface of said wall and then through said slot; characterized in that a mesh (214, 216, 218) is suitably located outside said chamber such as to be disposed in the path of flow of said droplets of liquid of said vapor-liquid mixture that are forced to flow through said slot.
A mobile terminal comprising: a main body having a front and a back surface; a sliding body mounted on said main body, said sliding body being slidable along said main body, said sliding body having a front surface and a back surface, wherein said sliding body has an oblique flat lower end surface; a cradle device connected to said sliding body, said cradle device being pivotable between a flat position contacting said back surface of said main body and a slanted position pivoted away from said back surface of said main body for supporting said main body and sliding body in a slanted position, wherein said cradle device has a pivot provided at a lower edge of said back surface of said sliding body; and a sliding guide module for guiding the face-to-face sliding motion of said sliding body along said main body, wherein said sliding body and said main body are parallel to each other and wherein the main body is between the sliding body and the cradle device. a main body having a front and a back surface; a sliding body mounted on said main body, said sliding body being slidable along said main body, said sliding body having a front surface and a back surface, wherein said sliding body has an oblique flat lower end surface; a cradle device connected to said sliding body, said cradle device being pivotable between a flat position contacting said back surface of said main body and a slanted position pivoted away from said back surface of said main body for supporting said main body and sliding body in a slanted position, wherein said cradle device has a pivot provided at a lower edge of said back surface of said sliding body; and a sliding guide module for guiding the face-to-face sliding motion of said sliding body along said main body, wherein said sliding body and said main body are parallel to each other and wherein the main body is between the sliding body and the cradle device.
A substantially translucent or transparent flexible sheet (1, 11) comprising a plurality of strips (2, 3, 4, 5) formed, fully or partly, of a translucent amorphous polymer material, said strips (2, 3, 4, 5) being woven together in warp and weft directions, and characterized in that at least one group of parallel ribbons arranged in the warp and/or weft direction comprise a textile core formed by reinforcing yarns (6, 16).
A method of coating a sheet of steel comprising the steps:- preparing a surface of a sheet of steel that is to be coated; applying a first metal deposition coating to said sheet of steel, said first coating comprising aluminium; applying a second metal deposition coating to said first coating, said second coating comprising aluminium and a least one first doping material; and applying a barrier coating to said second metal deposition coating and characterised in that said second metal deposition coating is applied in a plurality of stages including a first stage and a second stage and wherein a particle accelerator used in the coating applications operates so as to accelerate the particles more in the first stage than the second stage so that a surface produced in said first stage has a surface roughness less than a surface roughness produced in said second stage;. preparing a surface of a sheet of steel that is to be coated; applying a first metal deposition coating to said sheet of steel, said first coating comprising aluminium; applying a second metal deposition coating to said first coating, said second coating comprising aluminium and a least one first doping material; and applying a barrier coating to said second metal deposition coating and characterised in that said second metal deposition coating is applied in a plurality of stages including a first stage and a second stage and wherein a particle accelerator used in the coating applications operates so as to accelerate the particles more in the first stage than the second stage so that a surface produced in said first stage has a surface roughness less than a surface roughness produced in said second stage;.
A method for manufacturing a photodiode (1; 3; 4; 5) comprising a useful layer (10; 20; 30) of a semiconducting alloy, the useful layer having a decreasing gap value from a first face called an upper face (108; 208; 308; 408; 508) to an opposite face called a lower face (109; 409; 509), said method comprising a step of making a first doped region (13; 23; 33; 43; 53) located in the useful layer and forming a PN junction (15; 25) with a second doped region (14; 24; 44; 54) of the useful layer, characterised in that making the first doped region comprises: - a first doping step, so as to make a part forming a base (131; 231; 431; 531) of the first doped region; and - a second doping step, so as to make at least one protrusion (132; 232; 432; 532) of the first doped region, said protrusion projecting from the part forming the base and towards the lower face (109; 409; 509) of the useful layer, so that the mean gap value in the protrusion (132; 232; 432; 532) is lower than the mean gap value in the part forming the base (131; 231; 431; 531). - a first doping step, so as to make a part forming a base (131; 231; 431; 531) of the first doped region; and - a second doping step, so as to make at least one protrusion (132; 232; 432; 532) of the first doped region, said protrusion projecting from the part forming the base and towards the lower face (109; 409; 509) of the useful layer, so that the mean gap value in the protrusion (132; 232; 432; 532) is lower than the mean gap value in the part forming the base (131; 231; 431; 531).
A travel control method for a vehicle for stopping a subject vehicle (V 0) at a shoulder of a road (Ls) when the subject vehicle arrives at a destination while the subject vehicle (V 0) travels, or when a driver of the subject vehicle (V 0) becomes unable to drive during travel of the subject vehicle (V 0) or when a failure occurs that interferes with the travel of the subject vehicle (V 0) during the travel of the subject vehicle (V 0), comprising: generating a control plan for autonomous stop control; characterized in that the control plan for autonomous stop control comprises deceleration control for decreasing a speed of the subject vehicle (V 0) in a lane in which the subject vehicle (V 0) travels; pulling over control for moving the subject vehicle (V 0) from the lane to the shoulder of the road (Ls) with maintaining the velocity of the subject vehicle (V 0) at a constant velocity; and stop control for stopping the subject vehicle (V 0) at the shoulder of the road (Ls); and by performing the autonomous stop control for decelerating the subject vehicle (V 0) and then moving the subject vehicle (V 0) to the shoulder of the road (Ls) by individually and sequentially performing each of the deceleration control, the pulling over control, and the stop control in an order of the deceleration control, the pulling over control and the stop control on a basis of the control plan. generating a control plan for autonomous stop control; characterized in that the control plan for autonomous stop control comprises deceleration control for decreasing a speed of the subject vehicle (V 0) in a lane in which the subject vehicle (V 0) travels; pulling over control for moving the subject vehicle (V 0) from the lane to the shoulder of the road (Ls) with maintaining the velocity of the subject vehicle (V 0) at a constant velocity; and stop control for stopping the subject vehicle (V 0) at the shoulder of the road (Ls); and by performing the autonomous stop control for decelerating the subject vehicle (V 0) and then moving the subject vehicle (V 0) to the shoulder of the road (Ls) by individually and sequentially performing each of the deceleration control, the pulling over control, and the stop control in an order of the deceleration control, the pulling over control and the stop control on a basis of the control plan.
A steel beam reinforcing method having a steel profile comprising a lower head and an upper head which is substantially parallel to said lower head, comprising the steps of: a) Connecting embedded studs under the lower head of the steel profile, b) Positioning a fixture and cables inside a mold system having a mold carcass, c) Positioning the steel profile on the mold system such that the embedded studs are placed into said fixture, d) Applying pre-tensioning process to said cables by means of pre-tensioning apparatus, e) Fixing the tensions and positions of said cables and applying lower reinforcing concrete to a concrete chamber provided in the mold system, f) Removing the pre-tensioning apparatus and releasing the cables, g) Transferring the tensioning forces, existing in the fixed cables and in the lower reinforcing concrete, to the steel beam through the embedded studs, the steel beam reinforcing method being characterized in that connection elements are provided which are connected onto said lower head, wherein during the production step, in order to prevent the deflection in the steel profile which occurs due to the fixture and the cables, the positioning arms supporting the steel profile, positioned in the mold system in step (b), are placed to the connection elements. a) Connecting embedded studs under the lower head of the steel profile, b) Positioning a fixture and cables inside a mold system having a mold carcass, c) Positioning the steel profile on the mold system such that the embedded studs are placed into said fixture, d) Applying pre-tensioning process to said cables by means of pre-tensioning apparatus, e) Fixing the tensions and positions of said cables and applying lower reinforcing concrete to a concrete chamber provided in the mold system, f) Removing the pre-tensioning apparatus and releasing the cables, g) Transferring the tensioning forces, existing in the fixed cables and in the lower reinforcing concrete, to the steel beam through the embedded studs, the steel beam reinforcing method being characterized in that connection elements are provided which are connected onto said lower head, wherein during the production step, in order to prevent the deflection in the steel profile which occurs due to the fixture and the cables, the positioning arms supporting the steel profile, positioned in the mold system in step (b), are placed to the connection elements.
B-pillar of a motor vehicle having a foot area and a head area, wherein in the foot area a contact area with a connection area for connecting the B pillar to a sill is present, wherein the B-pillar over its height from a foot edge to a B-pillar head has hard and soft areas, wherein the B-pillar has a soft area (W 1, W), which extends from a contact region of the B-pillar to the sill to the B-column head and hereby extends over at least 100 mm, characterized in that in the contact area at least one connection area, in which the joining points to the sill are arranged, is formed hard, and wherein a second soft area extends under the connection area of the B-pillar to the sill to the B-pillar foot.
Roll door including a flexible door panel, a roll bar, side frames, mounting flanges for mounting the roll bar above the side frames, a motor, and a top roll cover, wherein the mounting flanges are arranged at the outer ends of the roll cover and vertically above supporting beams supporting the side frames, respectively, characterized in, that an axis of the roll bar is positioned in alignment with the beams, and the mounting flanges are connected by means for fastening the mounting flanges at their bottom sides with upper ends of the beams, which means are arranged below the roll bar in its mounted position.
An exhaust purification system for an internal combustion engine comprising a particulate filter for trapping particulate matter which is contained in exhaust gas in an engine exhaust passage, where the particulate filter is provided with alternately arranged exhaust gas inflow passages and exhaust gas outflow passages and porous partition walls which separate these exhaust gas inflow passages and exhaust gas outflow passages from each other, micropore zones are defined at upstream sides of the partition walls, macropore zones are defined at downstream sides of the partition walls, a pore size of the partition walls in the micropore zones is set so that particulate matter and ash can be trapped by the partition walls at the micropore zones, a pore size of the partition walls in the macropore zones is set so that ash can pass through the partition walls at the macropore zones, and the partition walls at the micropore zones and the partition walls at the macropore zones are integrally formed, characterized in that the exhaust purification system comprises means configured so that, when the difference (dQPM) between the quantity of the particulate matter which is trapped on the partition walls at the micropore zones and the quantity of particulate matter which is trapped on the partition walls at the macropore zones exceeds a predetermined threshold value (dQPML), PM removal control, which increases the temperature of the particulate filter to a PM removal temperature and maintains the same to the PM removal temperature while maintaining the particulate filter in an oxidizing atmosphere in order to remove the particulate matter on the particulate filter, is executed.
An optical fiber cutting system (1; 1A; 1B; 1C; 1D) comprising: a pair of clamps (11, 12) disposed at an interval in a longitudinal direction of an optical fiber, the pair of clamps (11, 12) being configured to grip the optical fiber; a disk-shaped blade member including an outer peripheral edge portion, the blade member being configured to scratch the optical fiber by moving between the pair of clamps (11, 12) and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber, the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber; a pressing member configured to cut the optical fiber by pressing and bending a scratched portion on the optical fiber; and characterized in that said optical fiber system furthermore comprises an acquisition unit configured to acquire position information of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber, the acquisition unit being a sensor (15; 16) configured to acquire the position information of the outer peripheral edge portion by detecting a direction of a magnetic line corresponding to the position of the outer peripheral edge portion. a pair of clamps (11, 12) disposed at an interval in a longitudinal direction of an optical fiber, the pair of clamps (11, 12) being configured to grip the optical fiber; a disk-shaped blade member including an outer peripheral edge portion, the blade member being configured to scratch the optical fiber by moving between the pair of clamps (11, 12) and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber, the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber; the blade member being configured to scratch the optical fiber by moving between the pair of clamps (11, 12) and by bringing the outer peripheral edge portion into contact with a surface of the optical fiber, the blade member being capable of changing a position of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber; a pressing member configured to cut the optical fiber by pressing and bending a scratched portion on the optical fiber; and characterized in that said optical fiber system furthermore comprises an acquisition unit configured to acquire position information of the outer peripheral edge portion where the outer peripheral edge portion is in contact with the optical fiber, the acquisition unit being a sensor (15; 16) configured to acquire the position information of the outer peripheral edge portion by detecting a direction of a magnetic line corresponding to the position of the outer peripheral edge portion.
A method of monitoring aging of an item, the method comprising: locating a solid-state structure proximate the item, the solid-state structure being subjected to a combination of time and temperature, the solid-state structure including nanoparticles of a first material distributed in a matrix material between a pair of electrodes, which are arranged on the solid-state structure, measuring a physical parameter of the solid-state structure using the pair of electrodes, the physical parameter being an electrical resistance or a magnetization; determining a change in the physical parameter relative to an initial state of the solid-state structure, the change in physical parameter being due to morphological changes of the nanoparticles within the solid state structure caused by the combination of time and temperature, determining the aging of the item caused by the combination of time and temperature from the change in the physical parameter in the solid state structure, characterized in that the nanoparticles are ferromagnetic nanoparticles and the matrix material is a semi-metal or semiconductor. locating a solid-state structure proximate the item, the solid-state structure being subjected to a combination of time and temperature, the solid-state structure including nanoparticles of a first material distributed in a matrix material between a pair of electrodes, which are arranged on the solid-state structure, measuring a physical parameter of the solid-state structure using the pair of electrodes, the physical parameter being an electrical resistance or a magnetization; determining a change in the physical parameter relative to an initial state of the solid-state structure, the change in physical parameter being due to morphological changes of the nanoparticles within the solid state structure caused by the combination of time and temperature, determining the aging of the item caused by the combination of time and temperature from the change in the physical parameter in the solid state structure, characterized in that the nanoparticles are ferromagnetic nanoparticles and the matrix material is a semi-metal or semiconductor.
Method for assembling a carrier strip made of textile, plastic, paper material or the like, to a receiving carrier with a material having adhesion and resistance properties, said method implementing the following steps: a) preliminarily depositing the material, having adhesion and resistance properties to the receiving carrier, on a rotatable heating cylinder, b) providing a carrier strip made of a textile, plastic, or paper material or the like, and conveying the same towards said cylinder downstream from the deposition point of said material, c) positioning said carrier strip on said material around the cylinder and simultaneously pressing said carrier strip onto said heating cylinder so as to generate a bond with said material, d) rotating the cylinder at a rotation amplitude determined on the basis of the application from the application area of said material onto the cylinder, e) removing said carrier strip with said integrated material for a subsequent processing of the assembly thus obtained. a) preliminarily depositing the material, having adhesion and resistance properties to the receiving carrier, on a rotatable heating cylinder, b) providing a carrier strip made of a textile, plastic, or paper material or the like, and conveying the same towards said cylinder downstream from the deposition point of said material, c) positioning said carrier strip on said material around the cylinder and simultaneously pressing said carrier strip onto said heating cylinder so as to generate a bond with said material, d) rotating the cylinder at a rotation amplitude determined on the basis of the application from the application area of said material onto the cylinder, e) removing said carrier strip with said integrated material for a subsequent processing of the assembly thus obtained.