mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: arranging at least one semiconductor die on a die pad at a first surface of a support substrate, the support substrate having a first thickness between the first surface and a second surface opposite the first surface and comprising an array of electrically conductive leads around the die pad, wherein electrically conductive leads in the array of electrically conductive leads have terminal recesses at the first surface of the support substrate, wherein at said terminal recesses said electrically conductive leads in the array of electrically conductive leads have a second thickness less than said first thickness, electrically coupling the at least one semiconductor die with said electrically conductive leads in the array of electrically conductive leads via electrically conductive elongated formations having coupling ends (161, 162) to the electrically conductive leads in the array of electrically conductive leads arranged in said terminal recesses, and partially cutting (SB') the support substrate starting from the second surface, partially cutting (SB') being at said terminal recesses and with a cutting thickness between the first thickness and the second thickness, wherein the partial cutting (SB') produces exposed surfaces of the support substrate and the coupling ends of the electrically conductive elongated formations. arranging at least one semiconductor die on a die pad at a first surface of a support substrate, the support substrate having a first thickness between the first surface and a second surface opposite the first surface and comprising an array of electrically conductive leads around the die pad, wherein electrically conductive leads in the array of electrically conductive leads have terminal recesses at the first surface of the support substrate, wherein at said terminal recesses said electrically conductive leads in the array of electrically conductive leads have a second thickness less than said first thickness, electrically coupling the at least one semiconductor die with said electrically conductive leads in the array of electrically conductive leads via electrically conductive elongated formations having coupling ends (161, 162) to the electrically conductive leads in the array of electrically conductive leads arranged in said terminal recesses, and partially cutting (SB') the support substrate starting from the second surface, partially cutting (SB') being at said terminal recesses and with a cutting thickness between the first thickness and the second thickness, wherein the partial cutting (SB') produces exposed surfaces of the support substrate and the coupling ends of the electrically conductive elongated formations.
Active part of an electrical machine, having - a carrier which is designed as a cylindrical laminated core, - a plurality of coils (11,12,13), which are arranged on the carrier and which each comprise a plurality of sub-conductors, and - a winding head area, in which the coils (11,12,13) each project out of the carrier in an arced shape and are connected to one another, wherein each of the coils (11,12,13) has a coil arc in the winding head area, and the centre line (15,16,17) of the coil essentially runs in one plane in the coil arc, and the sub-conductors of the coil run parallel to the plane in the coil arc of the coil and themselves in each case form sub-conductor arcs, wherein the vertices of the sub-conductor arcs of the coil form a line of inclination, wherein the line of inclination of each of the coils (11,12,13) is arranged both at an angle to a front face of the carrier and at an angle to the main axis of the carrier, wherein the planes of three adjacent coils occupy the angles 0°, 45° and 90° in respect of a front face of the carrier, from which the coils (11,12,13) project. - a carrier which is designed as a cylindrical laminated core, - a plurality of coils (11,12,13), which are arranged on the carrier and which each comprise a plurality of sub-conductors, and - a winding head area, in which the coils (11,12,13) each project out of the carrier in an arced shape and are connected to one another, wherein each of the coils (11,12,13) has a coil arc in the winding head area, and the centre line (15,16,17) of the coil essentially runs in one plane in the coil arc, and the sub-conductors of the coil run parallel to the plane in the coil arc of the coil and themselves in each case form sub-conductor arcs, wherein the vertices of the sub-conductor arcs of the coil form a line of inclination, wherein the line of inclination of each of the coils (11,12,13) is arranged both at an angle to a front face of the carrier and at an angle to the main axis of the carrier,
A valve assembly for venting pressure in a fuel tank, the valve assembly comprising: a housing defining a passage and a valve seat provided at one end of the passage; and a float assembly disposed within the housing, the float assembly including a flexible membrane seal that seals against the valve seat when the float assembly rises in response to a rising fuel level in the fuel tank, and a reopen profile that applies a reopening force along a select portion of the membrane seal to release the membrane seal from the valve seat when the float assembly drops in response to a falling fuel level in the fuel tank; characterized in that: the valve assembly further comprises a cage at an upper end of the float assembly, the cage supporting the reopen profile; and the flexible membrane seal being disposed within the cage of the float assembly. a housing defining a passage and a valve seat provided at one end of the passage; and a float assembly disposed within the housing, the float assembly including a flexible membrane seal that seals against the valve seat when the float assembly rises in response to a rising fuel level in the fuel tank, and a reopen profile that applies a reopening force along a select portion of the membrane seal to release the membrane seal from the valve seat when the float assembly drops in response to a falling fuel level in the fuel tank; characterized in that: the valve assembly further comprises a cage at an upper end of the float assembly, the cage supporting the reopen profile; and a flexible membrane seal that seals against the valve seat when the float assembly rises in response to a rising fuel level in the fuel tank, and a reopen profile that applies a reopening force along a select portion of the membrane seal to release the membrane seal from the valve seat when the float assembly drops in response to a falling fuel level in the fuel tank; the valve assembly further comprises a cage at an upper end of the float assembly, the cage supporting the reopen profile; and the flexible membrane seal being disposed within the cage of the float assembly.
Method for operating a motor vehicle, in which at least one electrical machine (12, 14) configured for operating the motor vehicle is used for recuperating electrical energy, and in which a journey of the motor vehicle during a future period of time is taken into consideration, wherein when using the at least one electrical machine (12, 14) for recuperating electrical energy, it is taken into consideration whether for reasons of a thermal load on the at least one electrical machine (12, 14) in the future period of time a reduction in the drive performance of the motor vehicle which can be provided by the at least one electrical machine (12, 14) is to be expected, wherein the at least one electrical machine (12, 14) recuperates a quantity of electrical energy during a deceleration of the motor vehicle which is less than the quantity of electrical energy which can be recuperated during the deceleration by means of the at least one electrical machine (12, 14), characterized in that for decelerating the motor vehicle a recuperation moment as a function thereof is distributed unevenly at least onto a first electrical machine and a second electrical machine, which power the respective electrical machine (12, 14) is to output in the period of time for driving the motor vehicle. wherein when using the at least one electrical machine (12, 14) for recuperating electrical energy, it is taken into consideration whether for reasons of a thermal load on the at least one electrical machine (12, 14) in the future period of time a reduction in the drive performance of the motor vehicle which can be provided by the at least one electrical machine (12, 14) is to be expected, wherein the at least one electrical machine (12, 14) recuperates a quantity of electrical energy during a deceleration of the motor vehicle which is less than the quantity of electrical energy which can be recuperated during the deceleration by means of the at least one electrical machine (12, 14), characterized in that for decelerating the motor vehicle a recuperation moment as a function thereof is distributed unevenly at least onto a first electrical machine and a second electrical machine, which power the respective electrical machine (12, 14) is to output in the period of time for driving the motor vehicle.
Child seat, in particular for fastening on a motor vehicle seat, with a seat shell which, for the adjustment of the sitting position or reclining position, is mounted in a seat frame so as to be pivotable relative thereto, wherein the relative movement between the seat shell and the seat frame can be carried out by means of an electric motor which is operatively connected to a gear spindle via a spindle gear, and the electric motor has an armature Shaft which drives a worm which meshes with a worm wheel arranged on the gear spindle, wherein the gear spindle interacts with an adjustment element which adjusts the seat shell in relation to the seat frame, wherein the adjustment element is connected directly to the seat shell, and the seat frame has a guide structure in which guide elements of the seat shell are guided, wherein the electric motor is mounted in an articulated manner in the seat frame, and the adjustment element is designed as a spindle nut which is fastened in an articulated manner to the seat shell on the one hand and rotatably receives the gear spindle on the other hand.
A method for analyzing fetal nucleic acids from the supernatant of the culture medium of fetal cell cultures of in vitro fertilization, comprising the steps: a) extracting cell-free supernatant containing fetal nucleic acid from the in vitro fertilization culture medium from the culture vessel used for cultivating the fertilized egg cell, b) isolating the fetal nucleic acids contained in the supernatant and c) performing an analysis of the nucleic acids present in the cell-free supernatant.
An injection system for injecting an aqueous solution into a fuel-injected engine for automotive vehicle comprising: • a tank for an aqueous solution, • a first pump configured to transfer through an injection line, aqueous solution from said tank to at least one injector of the fuel-injected engine, • a second pump configured to transfer through a purge line, aqueous solution from said at least one injector of the fuel-injected engine to said tank, • decontamination means configured to decontaminate said aqueous solution passing through said purge line, said decontamination means comprising a first decontaminant capable of removing the organic contaminants present in said purged aqueous solution. • a tank for an aqueous solution, • a first pump configured to transfer through an injection line, aqueous solution from said tank to at least one injector of the fuel-injected engine, • a second pump configured to transfer through a purge line, aqueous solution from said at least one injector of the fuel-injected engine to said tank, • decontamination means configured to decontaminate said aqueous solution passing through said purge line, said decontamination means comprising a first decontaminant capable of removing the organic contaminants present in said purged aqueous solution.
Center plate for a rotor in a pulp or fiber refiner, said center plate having a surface provided with at least one feeding wing for directing lignocellulose-containing material flowing onto said surface towards a periphery of the center plate, where said at least one feeding wing is an elongated protrusion extending between a first end and a second end, said second end of said at least one feeding wing being arranged further away from a center of the center plate than said first end of said at least one feeding wing, and said second end of said at least one feeding wing being displaced relative to said first end of said at least one feeding wing in a direction opposite to a direction of rotation of the rotor and the center plate, characterized in that said surface is provided with at least one counter-feeding wing for directing steam flowing along said surface towards the center of the center plate, where said at least one counter-feeding wing is an elongated protrusion extending between a first end and a second end, said second end of said at least one counter-feeding wing being arranged further away from the center of the center plate than said first end of said at least one counter-feeding wing and closer to the center of the center plate than said first end of said at least one feeding wing, and said second end of said at least one counter-feeding wing being displaced relative to said first end of said at least one counter-feeding wing in a same direction as the direction of rotation, for directing steam to flow along said at least one counter-feeding wing in a direction having a component directed towards the center of the center plate, when the center plate is rotating in the direction of rotation.
Automotive milling machine, - comprising a machine frame, - comprising a controller for the travelling and milling operation, - comprising a working drum, - comprising a transport conveyor for discharging the milled material milled off by the working drum onto a loading surface of a transport vehicle comprising a rear wall, - where the transport conveyor is slewable, relative to the machine frame, about a first axis extending essentially horizontally under an elevation angle, and sideways about a second axis extending orthogonally to the first axis under a slewing angle, and - a detection device is arranged on the bottom side of the transport conveyor, in case of the transport conveyor approaching an object, characterized in that said detection device is used to initiate an activation signal to the controller in case of the transport conveyor approaching an object, in particular, the rear wall of the loading surface, wherein the controller, in the presence of an activation signal, generates a control signal for the reduction of the advance speed or for machine stoppage, and/or increases the elevation angle of the transport conveyor. - comprising a machine frame, - comprising a controller for the travelling and milling operation, - comprising a working drum, - comprising a transport conveyor for discharging the milled material milled off by the working drum onto a loading surface of a transport vehicle comprising a rear wall, - where the transport conveyor is slewable, relative to the machine frame, about a first axis extending essentially horizontally under an elevation angle, and sideways about a second axis extending orthogonally to the first axis under a slewing angle, and - a detection device is arranged on the bottom side of the transport conveyor, in case of the transport conveyor approaching an object,
Relocation device for laying flexible strand material in the ground, with: a laying slit formation apparatus extending in vertical direction of the relocation device for forming a laying slit in the earth, a towed insertion unit, trailing in longitudinal direction of the relocation device of the laying slit formation apparatus, for guiding several flexible strand materials (201 to 203) into the laying slit, with a hollow housing, which, in order to guide the strand materials (201 to 203), has several guide channels, preferably a number of guide channels corresponding to the number of strand materials to be laid, said guide channels each running separate from one another in an arc pattern between an entry opening at the top end of the insertion unit and an exit opening at the bottom end of the insertion unit, characterised in that the hollow housing, viewed in towing direction, is formed in an inverted-T pattern in such a way that the exit openings of the guide channels are arranged horizontally side by side at defined intervals. a laying slit formation apparatus extending in vertical direction of the relocation device for forming a laying slit in the earth, a towed insertion unit, trailing in longitudinal direction of the relocation device of the laying slit formation apparatus, for guiding several flexible strand materials (201 to 203) into the laying slit, with a hollow housing, which, in order to guide the strand materials (201 to 203), has several guide channels, preferably a number of guide channels corresponding to the number of strand materials to be laid, said guide channels each running separate from one another in an arc pattern between an entry opening at the top end of the insertion unit and an exit opening at the bottom end of the insertion unit, characterised in that the hollow housing, viewed in towing direction, is formed in an inverted-T pattern in such a way that the exit openings of the guide channels are arranged horizontally side by side at defined intervals.
Apparatus comprising: a biopsy guidance module, the biopsy guidance module comprising a post member; a lateral member, wherein the lateral member has a longitudinal axis, the lateral member being slidably mounted on the post member; a slide assembly, wherein the slide assembly is slidably mounted on the lateral member, wherein the slide assembly has a longitudinal axis and wherein the longitudinal axis of the slide assembly is generally parallel to the longitudinal axis of the lateral member; a gun mount configured to support a biopsy gun, the gun mount being connected to the lateral member via the slide assembly, wherein the gun mount is movable by sliding the slide assembly on the lateral member along a first axis with respect to the lateral member, the first axis being along an insertion direction of the biopsy gun into a patient; and a sensor which detects a position of the gun mount along the first axis with respect to the lateral member and generates positional data which is provided to an interface module. a biopsy guidance module, the biopsy guidance module comprising a post member; a lateral member, wherein the lateral member has a longitudinal axis, the lateral member being slidably mounted on the post member; a slide assembly, wherein the slide assembly is slidably mounted on the lateral member, wherein the slide assembly has a longitudinal axis and wherein the longitudinal axis of the slide assembly is generally parallel to the longitudinal axis of the lateral member; a gun mount configured to support a biopsy gun, the gun mount being connected to the lateral member via the slide assembly, wherein the gun mount is movable by sliding the slide assembly on the lateral member along a first axis with respect to the lateral member, the first axis being along an insertion direction of the biopsy gun into a patient; and a sensor which detects a position of the gun mount along the first axis with respect to the lateral member and generates positional data which is provided to an interface module.
A charged particle beam source, comprising: an electrically conductive support member coupled to a base; a mounting member coupled to the support member and defining a bore, wherein the mounting member defines a longitudinal axis and the bore extends along the longitudinal axis; and an emitter member received in the bore Characterized in that the mounting member further comprises a plurality of openings defined in a side wall of the mounting member that are in communication with the bore, the openings being offset from a free end of the mounting member in a direction toward the support member and spaced apart along its longitudinal axis, wherein each of the plurality of openings is a trench or slot; and the emitter member is retained and secured in place in the bore by a fixative material layer that is formed around the emitter member in the bore and at least partially around an exterior of the mounting member comprising the plurality of openings by either flow of a colloidal liquid or sol, sputtering, or chemical vapor deposition. an electrically conductive support member coupled to a base; a mounting member coupled to the support member and defining a bore, wherein the mounting member defines a longitudinal axis and the bore extends along the longitudinal axis; and an emitter member received in the bore Characterized in that the mounting member further comprises a plurality of openings defined in a side wall of the mounting member that are in communication with the bore, the openings being offset from a free end of the mounting member in a direction toward the support member and spaced apart along its longitudinal axis, wherein each of the plurality of openings is a trench or slot; and the emitter member is retained and secured in place in the bore by a fixative material layer that is formed around the emitter member in the bore and at least partially around an exterior of the mounting member comprising the plurality of openings by either flow of a colloidal liquid or sol, sputtering, or chemical vapor deposition.
A core plate assembly for a boiling water reactor of nuclear plant, comprising a core plate having a plurality of through-going apertures, a beam structure comprising a plurality of parallel first beams and a plurality of parallel second beams being perpendicular to the first beams, wherein the first and second beams (25, 26) enclose a plurality of rectangular areas beneath the core plate, wherein each of the rectangular areas encloses four of said through-going apertures, a plurality of control rod guide tubes, each being aligned with a respective one of the through-going apertures, a plurality of transition pieces, each being received in a respective one of the control rod guide tubes, and each having four passages for communicating with a respective fuel assembly, each passage permitting a coolant flow into the respective fuel assembly, wherein one flow inlet (31, 31') is provided for the coolant into each passage, respectively, characterized in that at least one of the flow inlets (31, 31') has a cross-sectional shape deviating from a circular shape, wherein the cross-sectional shape of the at least one flow inlet is determined by one hole (41, 42, 43) comprising a circular hole and a first recess extending from the circular hole.