mhurhangee/ep-ind-claims huggingface dataset:
Intermittently operating printing machine for printing three-dimensional objects (2, 52, 92, 152) by means of ink jet printing in at least one printing station (11, 61, 81, 101, 161), with a transport system (3, 53, 73, 93, 153), particularly a clock wheel (4, 54, 74, 94, 154) on which at least one drivable mounting (6, 56, 76, 96, 156) for holding a three-dimensional object (2, 52, 92, 152) is arranged, with at least one stationary, non-co-moving printing head (10, 60, 100, 160) for ink jet printing in the printing station (11, 61, 81, 101, 161), and with a controller, wherein the controller is set up to position the mounting (6, 56, 76, 96, 156) in the printing station (11, 61, 81, 101, 161) by means of the transport system (3, 53, 73, 93, 153) in such manner that a three-dimensional object (2, 52, 92, 152) retained in the mounting (6, 56, 76, 96, 156) is held in front of the printing head (10, 60, 100, 160), and to rotate the three-dimensional object (2, 52, 92, 152) held in front of the printing head (10, 60, 100, 160) for printing about an axis of rotation (8, 58, 78, 98, 158) in front of the printing head (10, 60, 100, 160) by means of the mounting (6, 56, 76, 96, 156), wherein the printing machine (1, 51, 71, 91, 151) has at least one further printing head (10, 60, 100, 160) in the at least one printing station (11, 61, 81, 101, 161), which printing head is arranged at another location or side relative to the axis of rotation (8, 58, 78, 98, 158) of the three-dimensional object (2, 52, 92, 152) in such manner that that no dirt originating from this printing head (10, 60, 100, 160) is able to fall on any other printing head (10, 60, 100, 160) of the printing station (11, 61, 81, 101, 161) due to gravity, that the at least one further printing head (10, 60, 100, 160) is able to print the three-dimensional object (2, 52, 92, 152) simultaneously with the other printing head (10, 60, 100, 160) of the printing station (11, 61, 81, 101, 161), and that none of the printing heads (10, 60, 100, 160) is placed by the transport system (3, 53, 73, 93, 153) in the interference contour created by a movement of the mounting (6, 56, 76, 96, 156) with a three-dimensional object (2, 52, 92, 152) held in the mounting (6, 56, 76, 96, 156), characterized in that the transport system (3, 53, 73, 93, 153) is a wheel designated as a clock wheel (4, 54, 74, 94, 154) which is rotated intermittently and on which the at least one mounting (6, 56, 76, 96, 156) for the three-dimensional object (2, 52, 92, 152) is fixed, wherein the axis of (55, 75, 95, 155) of the clock wheel (4, 54, 74, 94, 154) is disposed essentially horizontally, and wherein the alignment of the mountings (6, 56, 76, 96, 156) of the three-dimensional objects (2, 52, 92, 152) is identical at all printing stations (11, 61, 71, 81, 101, 161) and the axes of rotation (8, 58, 78, 98, 158) thereof are always aligned with the their respective direction of gravity, so that the printing heads (10, 60, 100, 160) print the three-dimensional object (2, 52, 92, 152) from the side.
A beam shaping assembly (10, 20, 30, 40, 50) for neutron capture therapy comprising: a beam inlet (11, 21, 31, 41, 51); a target (12, 22, 32, 42, 52), wherein the target (12, 22, 32, 42, 52) is configured to produce a nuclear reaction with an incident proton beam from the beam inlet (11, 21, 31, 41, 51) to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator (13, 23, 33, 43, 53) adjoining to the target (12, 22, 32, 42, 52), wherein the neutrons are moderated by the moderator (13, 23, 33, 43, 53) to epithermal neutron energies; a reflector (14, 24, 34, 44, 54) surrounding and supporting the moderator (13, 23, 33, 43, 53), wherein the reflector (14, 24, 34, 44, 54) leads the neutrons deviated from the main axis (X, X1, X2, X3) back to enhance epithermal neutron beam intensity; a radiation shield (16, 26, 36, 46, 56) arranged inside the beam shaping assembly (10, 20, 30, 40, 50) wherein the radiation shield (16, 26, 36, 46, 56) is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet (17, 27, 37, 47, 57); characterized in that a thermal neutron absorber (15, 25, 35, 45, 55) is provided adjoining to the moderator (13, 23, 33, 43, 53) and surrounded by the reflector (14,24,34,44,54), wherein the thermal neutron absorber (15, 25, 35, 45, 55) is configured in use to absorb thermal neutrons so as to avoid overdosing in superficial normal tissue during therapy. a beam inlet (11, 21, 31, 41, 51); a target (12, 22, 32, 42, 52), wherein the target (12, 22, 32, 42, 52) is configured to produce a nuclear reaction with an incident proton beam from the beam inlet (11, 21, 31, 41, 51) to produce neutrons, and wherein the neutrons form a neutron beam defining a main axis (X, X1, X2, X3); a moderator (13, 23, 33, 43, 53) adjoining to the target (12, 22, 32, 42, 52), wherein the neutrons are moderated by the moderator (13, 23, 33, 43, 53) to epithermal neutron energies; a reflector (14, 24, 34, 44, 54) surrounding and supporting the moderator (13, 23, 33, 43, 53), wherein the reflector (14, 24, 34, 44, 54) leads the neutrons deviated from the main axis (X, X1, X2, X3) back to enhance epithermal neutron beam intensity; a radiation shield (16, 26, 36, 46, 56) arranged inside the beam shaping assembly (10, 20, 30, 40, 50) wherein the radiation shield (16, 26, 36, 46, 56) is used for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet (17, 27, 37, 47, 57); characterized in that a thermal neutron absorber (15, 25, 35, 45, 55) is provided adjoining to the moderator (13, 23, 33, 43, 53) and surrounded by the reflector (14,24,34,44,54), wherein the thermal neutron absorber (15, 25, 35, 45, 55) is configured in use to absorb thermal neutrons so as to avoid overdosing in superficial normal tissue during therapy.
A machine tool comprising: a machining chamber for machining a workpiece; a tool storage chamber for storing a plurality of tools; a partition wall that separates the machining chamber and the tool storage chamber and has an opening for taking the tools out from the tool storage chamber; a shutter that has a shape covering the opening and which opens and closes the opening; wherein the partition wall includes a side wall member extending in a vertical direction and an inclined wall member that is inclined so as to decrease in height from the side wall member toward inside of the machining chamber, at least a part of the opening is formed in the inclined wall member, the machine tool being characterised in that it further comprises a receiving member having an inner surface that is U-shaped in cross section so as to receive a cutting fluid, wherein the receiving member is fixed on the side wall member so as to be adjacent to the opening under the shutter and is disposed so as to receive the cutting fluid falling along the side wall member when the shutter is opened. a machining chamber for machining a workpiece; a tool storage chamber for storing a plurality of tools; a partition wall that separates the machining chamber and the tool storage chamber and has an opening for taking the tools out from the tool storage chamber; a shutter that has a shape covering the opening and which opens and closes the opening; wherein the partition wall includes a side wall member extending in a vertical direction and an inclined wall member that is inclined so as to decrease in height from the side wall member toward inside of the machining chamber, at least a part of the opening is formed in the inclined wall member, the machine tool being characterised in that it further comprises a receiving member having an inner surface that is U-shaped in cross section so as to receive a cutting fluid, wherein the receiving member is fixed on the side wall member so as to be adjacent to the opening under the shutter and is disposed so as to receive the cutting fluid falling along the side wall member when the shutter is opened.
A refining surface (1, 2) of a refiner or a blade segment for a refiner intended for defibrating lignocellulose-containing material, which blade segment is arrangeable to form a part of the refining surface (1, 2) of the refiner and which blade segment has a refining surface of the blade segment, which refining surface (1, 2, 16) of the refiner or of the blade segment has a feed edge directed in the direction of the feed flow of the material to be refined and a discharge edge directed in the direction of the discharge flow of the refined material and which refining surface (1, 2, 16) comprises at least one first blade bar and at least one second blade bar (14") for defibrating lignocellulosic material and traveling in a direction from the feed edge towards the discharge edge, between which blade bars (14', 14") there is a blade groove, the first and the second (14") blade bar having a first end directed in the direction of the feed edge of the refining surface (1, 2, 16) and a second end directed in the direction of the discharge edge of the refining surface (1, 2, 16); characterized in that the refining surface (1, 2, 16) comprises at least one third blade bar for defibrating lignocellulosic material and traveling in a direction from the feed edge towards the discharge edge and having a first end directed in the direction of the feed edge of the refining surface (1, 2, 16), and a second end directed in the direction of the discharge edge of the refining surface (1, 2, 16); and in that the first end of the third blade bar has a guide surface rising from the direction of the feed edge of the refining surface (1, 2, 16) in the direction of the discharge edge of the refining surface (1, 2, 16) for guiding the lignocellulose-containing material to the upper surface of the third blade bar, the guide surface having a first end directed in the direction of the feed edge of the refining surface (1, 2, 16) and a second end directed in the direction of the discharge edge of the refining surface (1, 2, 16), in that the refining surface (1, 2, 16) of the refiner or the blade segment has no dams connecting two adjacent blade bars to each other; and that said guide surface is arranged, in the direction of travel of the first blade bar and the second blade bar (14"), at least partly between the first blade bar and the second blade bar (14"), between the first blade bar and an imaginary extension of the second blade bar (14"), between an imaginary extension of the first blade bar and the second blade bar (14"), or between the imaginary extensions of both the first blade bar and the second blade bar (14"); and that a first side edge and a second side edge of the third blade bar are, at the same time, in contact with side edges (24, 25) of the first blade bar and the second blade bar (14"), with the side edge of the first blade bar and an imaginary extension of the side edge of the second blade bar (14"), with an imaginary extension of the side edge of the first blade bar and the side edge of the second blade bar (14"), or with the imaginary extensions (24a, 25a) of the side edges (24, 25) of both the first blade bar and the second blade bar (14").
A device for roll management in a tilting motor vehicle of the hydropneumatic suspension type including two hydraulic shock absorbers (10, 20) associated respectively with the left and right wheels of the vehicle, a hydraulic block, which connects the two hydraulic shock absorbers (10, 20), and two proportional solenoid valves (40, 50), the openings of which ensure the flow of hydraulic fluid in one and the other of the two hydraulic shock absorbers (10, 20) for the control of the speed of inclination of the vehicle as a function of driving parameters of the latter, said device for roll management being characterized in that it comprises a means for measurement of the viscosity ("v") of the hydraulic fluid in the circuit of the hydraulic fluid, and a means for controlling the magnitude of opening of the proportional solenoid valves (40, 50) as a function of the measured value of the viscosity ("v"), so as to maintain a good stability of the vehicle in the rolling phases.
Process for manufacturing an article fashioned by selective melting of layers using a (co)polyamide powder comprising a process for the heat treatment of a (co)polyamide composition, especially in powder form, comprising at least the following steps: - heating to bring the composition to a temperature below the lowest melting point, or Tfmin, and above the temperature Tfmin-30°C, for at least 10 minutes, in particular for a time ranging from 10 to 120 min, - cooling to room temperature, - recovering the composition, obtained especially in powder form, said recovered composition having a value Tfr-Tir that is decreased relative to the initial value Tfr-Tir, i.e. before treatment, Tfr being the final crystalline rearrangement temperature and Tir being the initial crystalline rearrangement temperature, said (co)polyamide being a PA6 polyamide or a copolyamide obtained by polymerization of at least one constituent monomer of the polyamide of type 6, namely corresponding amino acid or caprolactam, and at least one comonomer represented by formula below: R(Am)w-(Ac)x y z in which: - R is a linear, branched, aliphatic, aromatic or cycloaliphatic hydrocarbon-based radical optionally comprising from 1 to 20 carbon atoms and optionally comprising heteroatoms such as N, O or P; - w is between 0 and 4; - x is between 0 and 4; - y is between 0 and 4; - z is between 0 and 4; and - w+x+y+z is greater than or equal to 1, especially between 1 and 5, said copolyamide comprising a content of constituent monomer of the polyamide of type 6 of at least 80mol%, relative to the number of moles of the total mixture of monomers and comonomers of the copolymer; Am is an amine function; Ac is a carboxylic acid function; and DA is a dicarboxylic acid function; - manufacturing said article by selective melting of layers of said powder. - heating to bring the composition to a temperature below the lowest melting point, or Tfmin, and above the temperature Tfmin-30°C, for at least 10 minutes, in particular for a time ranging from 10 to 120 min, - cooling to room temperature, - recovering the composition, obtained especially in powder form, - R is a linear, branched, aliphatic, aromatic or cycloaliphatic hydrocarbon-based radical optionally comprising from 1 to 20 carbon atoms and optionally comprising heteroatoms such as N, O or P; - w is between 0 and 4; - x is between 0 and 4; - y is between 0 and 4; - z is between 0 and 4; and - w+x+y+z is greater than or equal to 1, especially between 1 and 5, - manufacturing said article by selective melting of layers of said powder.
A rubber strip manufacturing device which is a device to manufacture a tape-like rubber strip made of unvulcanized rubber, and which includes a rubber extruder comprising a rubber extruder main body having a screw shaft for kneading and pushing the unvulcanized rubber toward an outlet opening, and a gear pump connected to the outlet opening of the rubber extruder main body and rotary-driven by a first motor; a calender head comprising a pair of calender rollers (4a, 4b) for rolling a shaped rubber body extruded from the rubber extruder to obtain the rubber strip; and a control unit for controlling a second motor for rotary-driving the calender rollers (4a, 4b) in conjunction with the first motor, characterized in that said control unit is adapted to control the number of rotation of the second motor based on the number of rotation of the first motor, such that the number of rotation of the second motor becomes approximately constant at the same time as the number of rotation of the first motor and after linearly increasing from zero.
A system for recording ridge pattern, comprising a light source, a prism made from optically transparent material, which defines the position of a reading surface, an optical system, a multi-element image receiver and a guiding optical element made in a form of prism, comprising a refractive surface, a reflective surface and an output surface, wherein the reading surface is optically linked to the image receiver such that rays passing from the light source through the prism and the guiding optical element to the multi-element image receiver are consecutively refracted on the refractive surface, reflected on the reflective surface and undergo a total internal reflection on the said refractive surface before leaving the guiding optical element through its output surface.
A cured product comprising a dispersant, inorganic particles, and a resin that is a product of polymerization or copolymerization of a curable resin, wherein the dispersant contains a compound represented by a formula R-X, R representing a group having an acryloyloxy group or a methacryloyloxy group at an end of the molecule thereof, X representing a carboxy group, wherein the dispersant content is 10 parts by volume to 20 parts by volume relative to 100 parts by volume of the cured product, and wherein the curable resin contains at least one monomer having an N number of polymerizable reactive groups, and the proportion of the at least one monomer is 25 parts by volume to 76 parts by volume relative to 100 parts by volume of the cured product, wherein N represents an integer of 2 or more. wherein the dispersant contains a compound represented by a formula R-X, R representing a group having an acryloyloxy group or a methacryloyloxy group at an end of the molecule thereof, X representing a carboxy group, wherein the dispersant content is 10 parts by volume to 20 parts by volume relative to 100 parts by volume of the cured product, and wherein the curable resin contains at least one monomer having an N number of polymerizable reactive groups, and the proportion of the at least one monomer is 25 parts by volume to 76 parts by volume relative to 100 parts by volume of the cured product, wherein N represents an integer of 2 or more.
A method for separating carbon dioxide from biogas, wherein carbon dioxide is separated from the biogas by means of pressure scrubbing in a first scrubbing column using a physically active scrubbing solution fed in counter-current, and is dissolved in the scrubbing solution, the scrubbed biogas is withdrawn and the charged scrubbing solution is regenerated in a first stripping column by means of CO 2 separation, wherein a gas mixture containing methane and carbon dioxide and a scrubbing solution residually charged with CO 2 are obtained, characterized in that a) the residually charged scrubbing solution obtained in the first stripping column is treated in a separate, second stripping column using stripping gas, wherein CO 2 is separated therefrom and that a fully regenerated scrubbing solution is obtained in this step, b) the gas mixture obtained in the first stripping column is fed to a second scrubbing column and CO 2 still contained therein is separated using the regenerated scrubbing solution, wherein methane is withdrawn at the head of the second scrubbing column, and c) the scrubbing solution obtained at the sump of the first stripping column is fed together with the scrubbing solution withdrawn from the second scrubbing column to the second stripping column. a) the residually charged scrubbing solution obtained in the first stripping column is treated in a separate, second stripping column using stripping gas, wherein CO 2 is separated therefrom and that a fully regenerated scrubbing solution is obtained in this step, b) the gas mixture obtained in the first stripping column is fed to a second scrubbing column and CO 2 still contained therein is separated using the regenerated scrubbing solution, wherein methane is withdrawn at the head of the second scrubbing column, and c) the scrubbing solution obtained at the sump of the first stripping column is fed together with the scrubbing solution withdrawn from the second scrubbing column to the second stripping column.
A terminal block, including: an insulating body (10, 30), having at least one duct (101, 301) and at least one hole (102, 302) formed through a wall of the insulating body (10, 30); a conductive linking bar (11, 31) arranged in the insulating body (10, 30), being adapted for connecting at least one wire respectively passing through the at least one hole (102, 302); and a temperature probe (12, 32) being configured to be received by the duct (101, 301) and made of transparent and insulating material, having a first end and a second end; and a discoloration layer (13, 33) arranged at the first end of the temperature probe (12, 32), including at least a thermochromic layer (130, 330); characterised in that at least a portion of the temperature probe (12, 32) is arranged to pass through the duct (101, 301) towards the conductive linking bar (11, 31) so that the discoloration layer (13, 33) at the first end of the temperature probe (12, 32) is closer to the conductive linking bar (11, 31) than the second end of the temperature probe (12, 32). an insulating body (10, 30), having at least one duct (101, 301) and at least one hole (102, 302) formed through a wall of the insulating body (10, 30); a conductive linking bar (11, 31) arranged in the insulating body (10, 30), being adapted for connecting at least one wire respectively passing through the at least one hole (102, 302); and a temperature probe (12, 32) being configured to be received by the duct (101, 301) and made of transparent and insulating material, having a first end and a second end; and a discoloration layer (13, 33) arranged at the first end of the temperature probe (12, 32), including at least a thermochromic layer (130, 330); characterised in that at least a portion of the temperature probe (12, 32) is arranged to pass through the duct (101, 301) towards the conductive linking bar (11, 31) so that the discoloration layer (13, 33) at the first end of the temperature probe (12, 32) is closer to the conductive linking bar (11, 31) than the second end of the temperature probe (12, 32).