mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing bitumen, comprising: a. subjecting a reduced crude oil to a distillation process to obtain vacuum residue having a minimum initial boiling point of 490° C and comprising at least 10 wt% of ingredients in the boiling range of IBP to 550° C; b. subjecting the vacuum residue thus obtained to a de-asphalting process by contacting with the eight parts by volume of propane added to one part by volume of vacuum residue with column top and bottom temperatures of 65°C and 55°C to obtain de-asphalted oil and asphalt; c. separating the asphalt thus produced; d. subjecting the de-asphalted oil to aromatic extraction process with N-methyl pyrolidone solvent in counter current extractor with top and bottom temperature of 90°C and 80°C and solvent to oil ratio (volume/volume) being maintained at 2.25 to obtain an aromatic enriched deasphalted oil extract fraction having a minimum initial boiling point of 490° C; comprising at least 10 wt% of ingredients in the boiling range of IBP to 550° C; poly cyclic aromatics ingredients selected from the group consisting of benzo(a)anthracene+chrysene, benzo(j)floranthene, benzo(e)pyrene, benzo(b)floranthene, benzo floranthene, benzo(a)pyrene and Dibenzo(a,h)anthracene being present at a concentration of less than 10 ppm; with benzo(a)pyrene concentration of less than 1 ppm; an aniline point in the range of 55° to 70° C and ingredients contributing to aromatic carbon in the range of 25 to 75 wt%; and e. mixing asphalt with 1 to 40 wt% of the aromatic enriched deasphalted oil extract fraction thus obtained in step (d) to get bitumen. a. subjecting a reduced crude oil to a distillation process to obtain vacuum residue having a minimum initial boiling point of 490° C and comprising at least 10 wt% of ingredients in the boiling range of IBP to 550° C; b. subjecting the vacuum residue thus obtained to a de-asphalting process by contacting with the eight parts by volume of propane added to one part by volume of vacuum residue with column top and bottom temperatures of 65°C and 55°C to obtain de-asphalted oil and asphalt; c. separating the asphalt thus produced; d. subjecting the de-asphalted oil to aromatic extraction process with N-methyl pyrolidone solvent in counter current extractor with top and bottom temperature of 90°C and 80°C and solvent to oil ratio (volume/volume) being maintained at 2.25 to obtain an aromatic enriched deasphalted oil extract fraction having a minimum initial boiling point of 490° C; comprising at least 10 wt% of ingredients in the boiling range of IBP to 550° C; poly cyclic aromatics ingredients selected from the group consisting of benzo(a)anthracene+chrysene, benzo(j)floranthene, benzo(e)pyrene, benzo(b)floranthene, benzo floranthene, benzo(a)pyrene and Dibenzo(a,h)anthracene being present at a concentration of less than 10 ppm; with benzo(a)pyrene concentration of less than 1 ppm; an aniline point in the range of 55° to 70° C and ingredients contributing to aromatic carbon in the range of 25 to 75 wt%; and e. mixing asphalt with 1 to 40 wt% of the aromatic enriched deasphalted oil extract fraction thus obtained in step (d) to get bitumen.
Driver assistance system for a vehicle, in particular a commercial vehicle, comprising a capturing unit and a calculating unit, wherein the capturing unit comprises a capturing device having an optical axis, which is under an angle (α) with respect to the road surface for the vehicle, and which captures a multiperspective image having different angles of view on a collision object (100, 102, 104) depending on the relative position with respect to the capturing device of the capturing unit, wherein the calculating unit is adapted to allocate the data captured by the capturing unit into at least two image portions (62, 64, 66), to analyse the multiperspective images captured by the capturing unit with respect to collision objects (100, 102, 104) and to trigger issuing a warning to the driver of the vehicle when detecting a collision object (100, 102, 104) and/or to intervene in the control of the vehicle, wherein the calculating unit determines the presence and the type of a collision object (100, 102, 104) in the at least two image portions (62, 64, 66) for identification of collision objects (100, 102, 104) based on the relative position of the collision object (100, 102, 104) with respect to the capturing device of the capturing unit and based on collision object parameters, depending on in which of the at least two image portions (60, 62, 64) the collision object (100, 102, 104) is located, wherein the collision object parameters vary depending on the relative position of the collision object (100, 102, 104) with respect to the capturing device of the capturing unit.
A method for material deposition, comprising: specifying a composition of a compound material to be deposited on an acceptor substrate; providing a transparent donor substrate having opposing first and second surfaces and multiple donor films comprising different, respective components of the specified composition formed on the second surface and having respective layer thicknesses selected responsively to the specified composition; positioning the donor substrate in proximity to an acceptor substrate, with the second surface facing toward the acceptor substrate; and directing pulses of laser radiation to pass through the first surface of the donor substrate and impinge on the donor films so as to induce ejection of droplets of molten material of the specified composition from the donor films onto the acceptor substrate. specifying a composition of a compound material to be deposited on an acceptor substrate; providing a transparent donor substrate having opposing first and second surfaces and multiple donor films comprising different, respective components of the specified composition formed on the second surface and having respective layer thicknesses selected responsively to the specified composition; positioning the donor substrate in proximity to an acceptor substrate, with the second surface facing toward the acceptor substrate; and directing pulses of laser radiation to pass through the first surface of the donor substrate and impinge on the donor films so as to induce ejection of droplets of molten material of the specified composition from the donor films onto the acceptor substrate.
Non-invasive pulsatile circulatory support device (1;10;500;600) intended to promote circulation of a blood volume in at least a part of a subject's body, the device comprising: - a flexible structure, arranged so as to be applied on at least the part of the subject's body, including: i. a distribution layer comprising a first series of pouches adjacent in pairs extending along one another, one of the pouches adjacent in pairs at least partially covering the other of the pouches adjacent in pairs; ii. a generation layer, covering the distribution layer, comprising a second series of inflatable pouches adjacent in pairs extending along one another; and, - means for generating a pulsation fluidially connected to the flexible structure in a leak-tight manner and arranged so as to create pulsation waves in the second series of pouches of the generation layer between the inner and outer layers, characterised in that the first series of pouches of the generation layer including pouches filled with an incompressible fluid enabling the propagation of the pulsation waves created within the generation layer by the means for generating. - a flexible structure, arranged so as to be applied on at least the part of the subject's body, including: i. a distribution layer comprising a first series of pouches adjacent in pairs extending along one another, one of the pouches adjacent in pairs at least partially covering the other of the pouches adjacent in pairs; ii. a generation layer, covering the distribution layer, comprising a second series of inflatable pouches adjacent in pairs extending along one another; and, i. a distribution layer comprising a first series of pouches adjacent in pairs extending along one another, one of the pouches adjacent in pairs at least partially covering the other of the pouches adjacent in pairs; ii. a generation layer, covering the distribution layer, comprising a second series of inflatable pouches adjacent in pairs extending along one another; and, - means for generating a pulsation fluidially connected to the flexible structure in a leak-tight manner and arranged so as to create pulsation waves in the second series of pouches of the generation layer between the inner and outer layers,
A security device comprising a matrix suitable to be personalized by means of a laser in order to produce a color image, comprising a color layer including elements, each of a single base color, and at least one concealing layer sensitive to the laser, characterized in that the shape of at least one element is modified to include a modification encroaching at least partially on at least one other element of another color, said at least one modified element imposing its color in the encroachment area.
A device for producing a shell of a ski boot that in some areas is adapted to a foot, or a leg, of a user, comprising a lower and/or upper shell part (3, 3') made of a plastic material, wherein a heating element for sectionally heating the lower and/or upper shell part (3, 3') above the softening temperature of the plastic material is provided, characterized in that the heating element comprises an outer adhesion-promoting layer for an adhesion connection of the heating element to one of the shell parts (3, 3') of the ski boot, wherein as an adhesion-promoting layer there are provided a layer of an adhesive comprising a reglueable pressure-sensitive adhesive, or a silicone layer, or an adhesion-promoting layer based on van der Waals forces.
A cover comprising a load bearing panel of generally square or rectangular form and having an upper surface and an underside surface, at least some of the edges of the load bearing panel being provided with ramp members which are secured along their length to the load bearing panel, the ramp members each defining an upper ramped surface and a lower, ground engaging surface, wherein the ground engaging surface is spaced beneath the underside surface of the load bearing panel, and wherein the panel comprises a projecting flange or recess, characterised in that the projecting flange or recess is provided with interlocking features through or into which material of the ramp members may pass or extend during an overmoulding thereof.
An automation module for building automation, which is designed for at least partial in-wall installation in a house wall, with a high voltage region and a low voltage region as well as comprising an insulation region for separating the high voltage region from the low voltage region; a first printed circuit board (41, 41') with at least one input interface (411, 414); a second printed circuit board with at least one control unit; and a third printed circuit board with at least one switching element; wherein the first, second and third printed circuit boards (41, 41'; 42; 61) as well as the insulation region are arranged one above the other in layers, wherein the insulation region is in the form of an insulation plate, and wherein the first printed circuit board (41, 41') and the second printed circuit board are arranged in the low-voltage region and the third printed circuit board is arranged in the high-voltage region. an insulation region for separating the high voltage region from the low voltage region; a first printed circuit board (41, 41') with at least one input interface (411, 414); a second printed circuit board with at least one control unit; and a third printed circuit board with at least one switching element; wherein the first, second and third printed circuit boards (41, 41'; 42; 61) as well as the insulation region are arranged one above the other in layers, wherein the insulation region is in the form of an insulation plate, and wherein the first printed circuit board (41, 41') and the second printed circuit board are arranged in the low-voltage region and the third printed circuit board is arranged in the high-voltage region.
A system comprising a first device and a second device, the system being configured for electrical stimulation of a brain of a person, the first device and the second device each comprising: a case configured to occupy a space within a burr hole or craniotomy in a skull; a subcutaneous electrode; a lead attached to a lower surface of the case and configured to be implanted through the burr hole or craniotomy in the person's skull; at least one subcranial electrode (105, 106, 107, 108) disposed on a lower end of the lead so that said at least one subcranial electrode will be positioned at a target location in the patient's brain when the lead is implanted through the burr hole or craniotomy; a battery within the case; and control circuitry internal to the case configured to receive current from the battery and generate electric pulses at a pulse frequency, a pulse amplitude, a pulse width, and a duty cycle, selected to stimulate the patient's brain; and wherein the control circuitry of the first device and the second device are configured to synchronize the electric pulses between the first device and the second device so that electric current forms a loop, allowing current to flow interior and exterior to the skull and through at least one stimulation target, characterised in that said subcutaneous electrode is on the case configured to lie above the skull and under the scalp. a case configured to occupy a space within a burr hole or craniotomy in a skull; a subcutaneous electrode; a lead attached to a lower surface of the case and configured to be implanted through the burr hole or craniotomy in the person's skull; at least one subcranial electrode (105, 106, 107, 108) disposed on a lower end of the lead so that said at least one subcranial electrode will be positioned at a target location in the patient's brain when the lead is implanted through the burr hole or craniotomy; a battery within the case; and control circuitry internal to the case configured to receive current from the battery and generate electric pulses at a pulse frequency, a pulse amplitude, a pulse width, and a duty cycle, selected to stimulate the patient's brain; and wherein the control circuitry of the first device and the second device are configured to synchronize the electric pulses between the first device and the second device so that electric current forms a loop, allowing current to flow interior and exterior to the skull and through at least one stimulation target, characterised in that said subcutaneous electrode is on the case configured to lie above the skull and under the scalp.
A manufacturing plant, in particular for the free-form bending of workpieces to be manufactured from sheet metal, comprising - a bending press, in particular a press brake, having a machine frame and pressing beams (13, 16) as well as tool receivers (19, 20) which are arranged and/or configured on the pressing beams (13, 16), - at least one bending tool having at least one bending punch and at least one bending die, - at least one tool store for at least one bending tool, - at least one rear stop unit with a base frame and at least one stop element for positioning the sheet metal to be processed on the side of the pressing beams (13, 16) remote from an operating side, - a tool manipulation unit for moving the bending tool between the at least one tool store and the tool receivers (19, 20) or for altering the position of the bending tool relative to the tool receivers (19, 20), wherein the tool manipulation unit is arranged on the rear stop unit, characterised in that the tool manipulation unit - comprises a manipulator arm with a first end region and a second end region, which manipulator arm in its first end region is pivotably mounted on the base frame of the rear stop unit about a first pivot axis having a vertical alignment, separately and independently from the at least one stop element, - comprises an adjusting unit, which adjusting unit is drive-connected to the manipulator arm for carrying out the pivoting movement, - comprises a tool manipulation device and the tool manipulation device is arranged in the second end region of the manipulator arm. - a bending press, in particular a press brake, having a machine frame and pressing beams (13, 16) as well as tool receivers (19, 20) which are arranged and/or configured on the pressing beams (13, 16), - at least one bending tool having at least one bending punch and at least one bending die, - at least one tool store for at least one bending tool, - at least one rear stop unit with a base frame and at least one stop element for positioning the sheet metal to be processed on the side of the pressing beams (13, 16) remote from an operating side, - a tool manipulation unit for moving the bending tool between the at least one tool store and the tool receivers (19, 20) or for altering the position of the bending tool relative to the tool receivers (19, 20), wherein the tool manipulation unit is arranged on the rear stop unit, - comprises a manipulator arm with a first end region and a second end region, which manipulator arm in its first end region is pivotably mounted on the base frame of the rear stop unit about a first pivot axis having a vertical alignment, separately and independently from the at least one stop element, - comprises an adjusting unit, which adjusting unit is drive-connected to the manipulator arm for carrying out the pivoting movement, - comprises a tool manipulation device and the tool manipulation device is arranged in the second end region of the manipulator arm.
A crane assembly including a trolley and a beam or rail, wherein the trolley is a low construction trolley for a wire rope hoist, arranged to travel along a lower flange of the horizontal beam or rail, whereby the trolley comprises a trolley frame (4; 4'); bearing wheels (51, 52) that are attached to the frame (4; 4') of the trolley and arranged to travel on an upper surface of the lower flange of the beam or rail on both longitudinal edges thereof, and at least some of which are driven wheels to move the trolley; a hoisting mechanism comprising a rope drum for a hoisting rope, a hoisting member in cooperation with the hoisting rope for hoisting a load, a hoisting motor for driving the rope drum and a gear to interconnect the hoisting motor and the rope drum; whereby the rope drum is supported to one side of the trolley frame (4; 4') and the hoisting member is arranged to travel under the beam or rail in a vertical plane passing substantially through the middle of the beam or rail, and the hoisting motor is arranged under the beam or rail and on a different side than the rope drum in relation to a vertical plane passing through the contact line of the bearing wheels that touches the lower flange of the beam or rail on the rope drum side, characterized in that the hoisting motor is placed between vertical planes passing through said bearing wheels (51, 52) arranged to travel on the upper surface of the lower flange of said beam or rail on both longitudinal edges thereof, said vertical planes passing through said bearing wheels being parallel to said vertical plane passing substantially through the middle of the beam or rail. a trolley frame (4; 4'); bearing wheels (51, 52) that are attached to the frame (4; 4') of the trolley and arranged to travel on an upper surface of the lower flange of the beam or rail on both longitudinal edges thereof, and at least some of which are driven wheels to move the trolley; a hoisting mechanism comprising a rope drum for a hoisting rope, a hoisting member in cooperation with the hoisting rope for hoisting a load, a hoisting motor for driving the rope drum and a gear to interconnect the hoisting motor and the rope drum; whereby the rope drum is supported to one side of the trolley frame (4; 4') and the hoisting member is arranged to travel under the beam or rail in a vertical plane passing substantially through the middle of the beam or rail, and the hoisting motor is arranged under the beam or rail and on a different side than the rope drum in relation to a vertical plane passing through the contact line of the bearing wheels that touches the lower flange of the beam or rail on the rope drum side, characterized in that the hoisting motor is placed between vertical planes passing through said bearing wheels (51, 52) arranged to travel on the upper surface of the lower flange of said beam or rail on both longitudinal edges thereof, said vertical planes passing through said bearing wheels being parallel to said vertical plane passing substantially through the middle of the beam or rail.
Method for producing a plastic trim part, wherein a. a polymer film is laid in an injection mold, wherein the polymer film has an opaque or partially opaque imprint stable against decomposition at a temperature of at least 320 °C, b. the polymer film is back injected with a polymer carrier part, wherein the polymer carrier part is implemented opaque, and c. a transparent polymer cover part is injected onto the polymer film and the polymer carrier part, wherein the polymer film is thermally preformed, and wherein a hardcoat, preferably thermal-cured or UV-cured varnishes, particularly preferably polysiloxanes, polyacrylates, polymethacrylates, and/or mixtures or copolymers thereof, is applied on the transparent polymer cover part. a. a polymer film is laid in an injection mold, wherein the polymer film has an opaque or partially opaque imprint stable against decomposition at a temperature of at least 320 °C, b. the polymer film is back injected with a polymer carrier part, wherein the polymer carrier part is implemented opaque, and c. a transparent polymer cover part is injected onto the polymer film and the polymer carrier part, wherein the polymer film is thermally preformed, and wherein a hardcoat, preferably thermal-cured or UV-cured varnishes, particularly preferably polysiloxanes, polyacrylates, polymethacrylates, and/or mixtures or copolymers thereof, is applied on the transparent polymer cover part.
A method of producing an ultra high molecular weight polyethylene film, comprising the steps of molding a film using an ultra high molecular weight polyethylene material; biaxially drawing the film obtained in said step in the x-axis and y-axis directions at a temperature not lower than the melting point of said ultra high molecular weight polyethylene; and subjecting said film to a shrinkage treatment at 136°C to 165°C along at least one of the x-axis and y-axis.