mhurhangee/ep-ind-claims huggingface dataset:
Positioning device of a flexible sticker intended to be stuck to a part of a motor vehicle, comprising: - at least two centering pins extending along a so-called vertical axis (Z-Z), intended to be inserted respectively into corresponding orifices of the sticker; - for each centering pin, at least one adjustment pin extending along the vertical axis (Z-Z), intended to be inserted respectively into at least one corresponding orifice of the sticker; - displacement means of each adjustment pin with respect to the corresponding centering pin in a direction contained in a plane transverse to the vertical axis (Z-Z), preferably a plane normal to the vertical axis (Z-Z); and - descent means of the ensemble formed by the centering pins and the adjustment pins according to the vertical axis (Z-Z). - at least two centering pins extending along a so-called vertical axis (Z-Z), intended to be inserted respectively into corresponding orifices of the sticker; - for each centering pin, at least one adjustment pin extending along the vertical axis (Z-Z), intended to be inserted respectively into at least one corresponding orifice of the sticker; - displacement means of each adjustment pin with respect to the corresponding centering pin in a direction contained in a plane transverse to the vertical axis (Z-Z), preferably a plane normal to the vertical axis (Z-Z); and - descent means of the ensemble formed by the centering pins and the adjustment pins according to the vertical axis (Z-Z).
Method for producing an electrotechnical coil, comprising the steps: a. Step A: casting an electrotechnical coil with at least one winding which runs about a coil axis, wherein the cross-section (Q, Q') of the at least one winding tapers inwards or outwards in the radial direction with respect to the coil axis; b. Step B: shaping the coil, thereby changing the cross-section (Q, Q') of the at least one winding, such that the center of area (FS, FS') of the cross-section (Q, Q') of the at least one winding is displaced at least partly in the radial direction relative to the coil axis. a. Step A: casting an electrotechnical coil with at least one winding which runs about a coil axis, wherein the cross-section (Q, Q') of the at least one winding tapers inwards or outwards in the radial direction with respect to the coil axis; b. Step B: shaping the coil, thereby changing the cross-section (Q, Q') of the at least one winding, such that the center of area (FS, FS') of the cross-section (Q, Q') of the at least one winding is displaced at least partly in the radial direction relative to the coil axis.
Forming tool having: - a frame; - a die receiver, for an exchangeable die, realised on said frame and provided with decoding means; and - a die having a first axial side, on which there is realized a recess for receiving material to be formed, having an axially opposite, second side, and having coding means realized to act together with corresponding decoding means of the forming tool, the coding means being realized on the second side, characterized in that a magazine receiving at least one replacement die is fixed to the frame, wherein the magazine has a replacement-die receiver on which decoding means are realized. - a frame; - a die receiver, for an exchangeable die, realised on said frame and provided with decoding means; and - a die having a first axial side, on which there is realized a recess for receiving material to be formed, having an axially opposite, second side, and having coding means realized to act together with corresponding decoding means of the forming tool, the coding means being realized on the second side,
Process for manufacturing a fuel tank equipped with an internal accessory and having a plastic wall produced from a parison, said process comprising, in order, the following steps: a) the accessory and the molten parison are introduced into a mould so that the accessory is surrounded by the parison, said mould comprising cavities equipped with at least one moving part; b) a pressurized gas is introduced inside the parison to carry out a pre-blow moulding of said parison; c) the pre-blow-moulded parison is pressed locally against the accessory using the moving part in order to firmly attach the two without piercing the parison; d) the mould is closed and the final blow moulding of the parison is carried out by flattening it against the mould cavities using the pressurized gas; and e) the tank is removed from the mould. a) the accessory and the molten parison are introduced into a mould so that the accessory is surrounded by the parison, said mould comprising cavities equipped with at least one moving part; b) a pressurized gas is introduced inside the parison to carry out a pre-blow moulding of said parison; c) the pre-blow-moulded parison is pressed locally against the accessory using the moving part in order to firmly attach the two without piercing the parison; d) the mould is closed and the final blow moulding of the parison is carried out by flattening it against the mould cavities using the pressurized gas; and e) the tank is removed from the mould.
A half bearing (12, 102), the half bearing comprising a circumferential groove (16, 108) intermediate axial ends of the half bearing (12, 102), at least one sealing member (14, 104) located in the groove (16, 108) and adapted to seal with a cooperating journal member, in use, said sealing member (14, 104) being urged against said journal member in use by an associated oil supply which provides oil pressure onto a back surface of the sealing member (14, 104) through an oil supply hole (28, 116) in the half bearing (12, 102), characterized in that said oil supply hole (28, 116) has an axial dimension greater than the axial extent of said at least one sealing member (14, 104).
A method for aiding in determining prognosis in a patient with breast cancer, or in selecting a therapeutic strategy for a patient with breast cancer, the method comprising the step of assessing the level of LMTK3 nucleic acid, protein or activity in a sample obtained from the patient.
An antenna comprising: a first dielectric layer (3, 23); a conductive pattern layer (6, 26) formed on a surface of the first dielectric layer; a second dielectric layer (4, 24) joined to the first dielectric layer on a side opposite to the conductive pattern layer with respect to the first dielectric layer; a conductive ground layer (7, 27) formed between the first dielectric layer and the second dielectric layer; a dielectric substrate (5, 25) joined to the second dielectric layer on a side opposite to the conductive ground layer with respect to the second dielectric layer; and an antenna pattern (8, 28) layer formed between the second dielectric layer and the dielectric substrate, the antenna pattern layer including one or more radiation elements, the conductive pattern layer including a feed line for supplying electric power to the radiation elements, the first and second dielectric layers being flexible, the dielectric substrate being rigid. a first dielectric layer (3, 23); a conductive pattern layer (6, 26) formed on a surface of the first dielectric layer; a second dielectric layer (4, 24) joined to the first dielectric layer on a side opposite to the conductive pattern layer with respect to the first dielectric layer; a conductive ground layer (7, 27) formed between the first dielectric layer and the second dielectric layer; a dielectric substrate (5, 25) joined to the second dielectric layer on a side opposite to the conductive ground layer with respect to the second dielectric layer; and an antenna pattern (8, 28) layer formed between the second dielectric layer and the dielectric substrate, the antenna pattern layer including one or more radiation elements, the conductive pattern layer including a feed line for supplying electric power to the radiation elements, the first and second dielectric layers being flexible, the dielectric substrate being rigid.
A refrigerator in which a refrigerating cycle provided with a compressor, a condenser, an expander (30, 31) and an evaporator (16, 20) is filled with a flammable refrigerant, a load detector (41, 43), for detecting a change in load of the compressor; and a control device, for detecting a damage which is a cause for leak of the refrigerant from the refrigerating cycle, based on a detection output of the load detector (41, 43), characterized in that: the control device is adapted to determine which part of the refrigerating cycle the damage has occurred in, a high pressure side from the compressor to the expander (30, 31) or a low pressure side from the expander (30, 31) to the compressor, on the basis of increase or decrease in the load of the compressor indicated by the detection output of the load detector; when the detection signal of the load detector (41, 43) indicates that the load of the compressor is at or above a first predetermined value relative to a normal state, the control device determines that the damage has occurred at the low pressure side; and when the detection signal of the load detector (41, 43) indicates that the load of the compressor is at or below a second predetermined value relative to a normal state, the control device determines that the damage has occurred at the high pressure side. the control device is adapted to determine which part of the refrigerating cycle the damage has occurred in, a high pressure side from the compressor to the expander (30, 31) or a low pressure side from the expander (30, 31) to the compressor, on the basis of increase or decrease in the load of the compressor indicated by the detection output of the load detector; when the detection signal of the load detector (41, 43) indicates that the load of the compressor is at or above a first predetermined value relative to a normal state, the control device determines that the damage has occurred at the low pressure side; and when the detection signal of the load detector (41, 43) indicates that the load of the compressor is at or below a second predetermined value relative to a normal state, the control device determines that the damage has occurred at the high pressure side.
A process for polymerizing one or more olefin monomers comprising: polymerizing one or more olefin monomers in a polymerization reactor to form a product stream comprising solid polymer flake entrained in a fluid; passing the product stream to a flash chamber to produce a fluid stream and a concentrated stream of polymer flake entrained in the fluid, wherein the fluid stream comprises the solid polymer flake in a lower concentration than in the product stream and the concentrated stream comprises the solid polymer flake in a higher concentration than in the product stream; passing the concentrated stream to a first degassing chamber, wherein a first purge fluid comprising one or more light hydrocarbons contacts the concentrated stream to produce a partially degassed polymer flake stream and a purge fluid stream wherein the partially degassed polymer flake stream comprises the fluid in a lower concentration than in the concentrated stream and the purge fluid stream comprises the solid polymer flake in a lower concentration than in the concentrated stream; and recycling the purge fluid stream to the polymerization reactor, wherein the one or more light hydrocarbons comprise methane. polymerizing one or more olefin monomers in a polymerization reactor to form a product stream comprising solid polymer flake entrained in a fluid; passing the product stream to a flash chamber to produce a fluid stream and a concentrated stream of polymer flake entrained in the fluid, wherein the fluid stream comprises the solid polymer flake in a lower concentration than in the product stream and the concentrated stream comprises the solid polymer flake in a higher concentration than in the product stream; passing the concentrated stream to a first degassing chamber, wherein a first purge fluid comprising one or more light hydrocarbons contacts the concentrated stream to produce a partially degassed polymer flake stream and a purge fluid stream wherein the partially degassed polymer flake stream comprises the fluid in a lower concentration than in the concentrated stream and the purge fluid stream comprises the solid polymer flake in a lower concentration than in the concentrated stream; and recycling the purge fluid stream to the polymerization reactor,
Gas turbine burner which comprises a reaction chamber and a plurality of jet nozzles leading into the reaction chamber, wherein fluid can be injected through an outlet by the jet nozzles into the reaction chamber by means of a fluid jet, the fluid being combusted in the reaction chamber to produce hot gas, wherein in at least one jet nozzle (6, 6a, 6b, 6c) an annular gap is disposed around the fluid jet such that some of the hot gas can be drawn out of the reaction chamber and flows into the annular gap in the opposite direction to the fluid flow and is mixed with the fluid jet inside the jet nozzle (6, 6a, 6b, 6c), and wherein the annular gap is formed by means of a liner tube (12, 12a, 12b), characterised in that the liner tube has a thicker section at the upstream end.
A processor-readable medium storing code representing instructions that when executed by a processor cause the processor to: initiate motion of a media web in a printing system; begin printing a print frame based on a start pulse from a metering device (136, 300); verify that printing the print frame is complete; receive a signal from the metering device (136, 300) that a frame-length of the media web has been measured at an output of the printing system; characterised by begin printing a new print frame after completion of the verification and reception of the signal from the metering device (136, 300). initiate motion of a media web in a printing system; begin printing a print frame based on a start pulse from a metering device (136, 300); verify that printing the print frame is complete; receive a signal from the metering device (136, 300) that a frame-length of the media web has been measured at an output of the printing system; characterised by begin printing a new print frame after completion of the verification and reception of the signal from the metering device (136, 300).
Method for the beam machining of a workpiece, which is designed as a metallic component, from which at least one workpiece part is intended to be separated using a focused machining beam, which comprises the following steps: - creating a trough in the workpiece using the focused machining beam, wherein the trough is created along at least one section of a contour of the at least one workpiece part to be separated from the workpiece, - altering a focal position of the machining beam such that the machining beam has a smaller beam diameter on the workpiece, - creating a gap in the workpiece using the machining beam with the altered focal position along at least one section of the contour of the at least one workpiece part to be separated from the workpiece, wherein the gap is created at least partially within the trough, wherein a working gas jet is used to expel melt from the gap and the trough. - creating a trough in the workpiece using the focused machining beam, wherein the trough is created along at least one section of a contour of the at least one workpiece part to be separated from the workpiece, - altering a focal position of the machining beam such that the machining beam has a smaller beam diameter on the workpiece, - creating a gap in the workpiece using the machining beam with the altered focal position along at least one section of the contour of the at least one workpiece part to be separated from the workpiece, wherein the gap is created at least partially within the trough, wherein a working gas jet is used to expel melt from the gap and the trough.
A process for production of anisotropic coke from a hydrocarbon feedstock comprising: (i) routing a first fraction of the hydrocarbon feedstock to a separator column and a second fraction of the hydrocarbon feedstock to an aromatic extractor unit; (ii) separating the first fraction of the hydrocarbon feedstock in the separator column, in to a lighter material and a first heavy material; (iii) desulfurizing the first heavy material in a hydrotreater reactor to obtain a second heavy material; (iv) aromatic extracting the second fraction of the hydrocarbon feedstock in the aromatic extractor unit parallel to the separator column with a solvent to obtain an aromatic extract stream and a paraffinic raffinate stream; (v) sending a combined feedstock comprising the lighter material, the second heavy material and the aromatic extract stream to a main fractionator column of a thermal cracker unit to obtain a secondary feedstock; and (vi) heating the secondary feedstock in a furnace to obtain a hot secondary feedstock and thermally cracking the hot secondary feedstock in coke drums for producing the anisotropic coke and lighter hydrocarbon product. (i) routing a first fraction of the hydrocarbon feedstock to a separator column and a second fraction of the hydrocarbon feedstock to an aromatic extractor unit; (ii) separating the first fraction of the hydrocarbon feedstock in the separator column, in to a lighter material and a first heavy material; (iii) desulfurizing the first heavy material in a hydrotreater reactor to obtain a second heavy material; (iv) aromatic extracting the second fraction of the hydrocarbon feedstock in the aromatic extractor unit parallel to the separator column with a solvent to obtain an aromatic extract stream and a paraffinic raffinate stream; (v) sending a combined feedstock comprising the lighter material, the second heavy material and the aromatic extract stream to a main fractionator column of a thermal cracker unit to obtain a secondary feedstock; and (vi) heating the secondary feedstock in a furnace to obtain a hot secondary feedstock and thermally cracking the hot secondary feedstock in coke drums for producing the anisotropic coke and lighter hydrocarbon product.
A terminal, characterized by comprising: a first detecting module, configured to detect whether an overall coupling capacitance between the terminal and a second terminal is less than a predetermined value; an adjusting module, configured to, when it is detected that the overall coupling capacitance between the terminal and the second terminal is less than the predetermined value, adjust an electrical connection of a driving channel (Y1-Yn) and/or a sensing channel (X1-Xm) of the terminal, to adjust the overall coupling capacitance between the terminal and the second terminal; and an establishing module, configured to establish capacitive communication between the terminal and the second terminal when it is detected that the overall coupling capacitance between the terminal and the second terminal is greater than or equal to the predetermined value. a first detecting module, configured to detect whether an overall coupling capacitance between the terminal and a second terminal is less than a predetermined value; an adjusting module, configured to, when it is detected that the overall coupling capacitance between the terminal and the second terminal is less than the predetermined value, adjust an electrical connection of a driving channel (Y1-Yn) and/or a sensing channel (X1-Xm) of the terminal, to adjust the overall coupling capacitance between the terminal and the second terminal; and an establishing module, configured to establish capacitive communication between the terminal and the second terminal when it is detected that the overall coupling capacitance between the terminal and the second terminal is greater than or equal to the predetermined value.
An organosilicon compound having a conjugated diene structure, represented by the general formula: R 1 n X 3-n Si-A-CR 2 =CR 2 -CR 2 =CH 2 wherein R 1 is a monovalent hydrocarbon group, X is halogen or an organoxy group, n is an integer of 0 to 2, each R 2 independently is hydrogen or monovalent hydrocarbon group, and A is a linear, cyclic or branched alkylene group of 4 to 10 carbon atoms.
Catalytic converter for aftertreatment of combustion gases from an internal combustion engine, comprising at least one catalyst and at least one electrically heatable heating disk, where the catalyst and the heating disk are each formed by a honeycomb having a multitude of flow channels through which flow is possible in a main flow direction, where the mechanical connection between the catalyst and the heating disk is formed by at least one support pin (1, 7, 10), where the support pin (1, 7, 10) has an inner core (2, 8) and the support pin (1, 7, 10) has a thickening in each of the two end regions, where the core (2, 8) is formed by a ceramic material and the thickening is formed by a ceramic-metal mixture, characterized in that the metal content in the ceramic-metal mixture increases with rising diameter, such that the metal content close to the ceramic core (2, 8) is lower than at the outer circumference of the thickening of the support pin (1, 7, 10).
A puncture needle for insertion into a puncture route formed to cover from a skin surface to a shunt vessel surface so as to expand an incision forming a puncture hole (107, 109) that is made in the shunt vessel surface, the puncture needle comprising: an inclined end face that is inclined toward a front end of the needle and has a front end part, and wherein right and left side edges of the inclined end face which are contiguous with the front end part are provided with cutting lines each having an edge angle (θ1) from 5 degrees to 85 degrees, characterized in that the front end part of the inclined end face constitutes an edge having no sharpness and is formed into an arc shape. an inclined end face that is inclined toward a front end of the needle and has a front end part, and wherein right and left side edges of the inclined end face which are contiguous with the front end part are provided with cutting lines each having an edge angle (θ1) from 5 degrees to 85 degrees, characterized in that the front end part of the inclined end face constitutes an edge having no sharpness and is formed into an arc shape.
Damping device containing a front deflector which includes a moveable support installed at a guide, the front deflector with possibility for movement in case of a vehicle collision, sectional side beams and sections of mass dampers, whereas the sectional side beams are designed to provide for telescopic insertion of the front section of a side beam into the next one behind it, while each of a pair of right and left sectional side beams (7, 8) is limited by a vertically oriented rectangular frame having a vertical base entering into the guide and fixed between relevant sections of a pair of right and left side beams (7, 8), while a rear block includes a terminal rectangular frame of the damping device and is fitted with a rear fastening rigidly connected to guide, wherein the damping device contain sections of mass dampers (14, 19), characterized in that the damping device contains sections of mass dampers of a first and/or second types (14, 19), where each section of mass damper of the first type is formed by twin vertical spaced apart sheet elements with zigzag-shaped bends, oriented towards each other, while each end of each sheet element with zigzag-shaped bend is bent outwards forming a through channel parallel to the centre line of the damping device, the section of mass damper being limited by vertical plates at its ends, whereas each section of mass damper of the second type is formed by a perforated end-to-end duct oriented horizontally relative to a through opening and perforation being made at each of four duct walls and at bends between the walls, with perforation at bends coming to both adjacent sides of duct, the section of mass damper being limited by vertical plates at its ends, wherein while the vertical plates connect sections of mass damper with each other, some vertical plates limiting the section rest on lower bar of each rectangular frame, and the front and rear vertical plates of the connected sections of mass dampers are fixed at the front deflector and the rear fastening, respectively.