mhurhangee/ep-ind-claims huggingface dataset:
Transmission, in particular multi-step transmission, for a motor vehicle, comprising a housing, a drive shaft, an output shaft, at least two planetary gear sets (PG1, PG4), the planetary gear sets (PG1, PG4) in each case comprising a sun gear (101, 104), at least one planet (111, 114), a spider (121, 124) and an internal gear (131, 134), and also comprising a plurality of shifting elements (A, F), the spider of the first planetary gear set being connected fixedly to the drive shaft (GW1, ANW) so as to rotate with it, and it being possible for the internal gear of the second planetary gear set to be connected to the housing by means of a first shifting element and to be connected to the spider of the second planetary gear set by means of a second shifting element, and the internal gear of the first planetary gear set being connected fixedly to the sun gear of the second planetary gear set so as to rotate with it, and it being possible for the sun gear of the first planetary gear set to be connected to the housing by way of at least one third shifting element (B, K1), and the majority of, in particular all, shifting elements (E, F, B, K1) being arranged in the housing such that they are accessible from the outside, characterized in that the transmission has at least one further planetary gear set (PG2, PG3, PG5, PG6), at least two of the planetary gear sets (PG1, PG2) being arranged behind one another in the transmission and/or at least two of the planetary gear sets (PG3, PG4; PG5, PG6) being arranged such that they are nested inside one another, a third planetary gear set being arranged between the first and second planetary gear set (PG1, PG4) or between the first and a fourth planetary gear set (PG1, PG3), a sun gear of the third planetary gear set being connected to the housing, or it being possible for a sun gear of the third planetary gear set to be connected to the housing by means of a fourth shifting element (B2, C).
Method for fabricating a memory device, wherein the method comprises: processing a plurality of selector devices in a semiconductor layer of a first substrate, processing an interconnect layer on a front-side of the semiconductor layer, the interconnect layer comprising an interconnect structure electrically connected to the plurality of selector devices, processing a plurality of memory elements in an oxide layer of the first substrate arranged on a back-side of the semiconductor layer, each memory element being electrically connected to one of the selector devices, and processing one or more vias through the semiconductor layer to electrically connect the memory elements to the interconnect structure, characterised in that each selector device comprises an NPN bipolar transistor with a floating base, or a PNP bipolar transistor with a floating base, or an NP diode, or a PN diode. processing a plurality of selector devices in a semiconductor layer of a first substrate, processing an interconnect layer on a front-side of the semiconductor layer, the interconnect layer comprising an interconnect structure electrically connected to the plurality of selector devices, processing a plurality of memory elements in an oxide layer of the first substrate arranged on a back-side of the semiconductor layer, each memory element being electrically connected to one of the selector devices, and processing one or more vias through the semiconductor layer to electrically connect the memory elements to the interconnect structure, characterised in that each selector device comprises an NPN bipolar transistor with a floating base, or a PNP bipolar transistor with a floating base, or an NP diode, or a PN diode.
An output control circuit for an electronic cigarette comprising a battery assembly and an atomizer, wherein the output control circuit further comprises a controller, a first switching circuit, a driving circuit and a second switching circuit, wherein the first switching circuit is electrically connected with the battery assembly, the controller and the atomizer; wherein the controller is electrically connected with the battery assembly; wherein the second switching circuit is electrically connected with the battery assembly, the driving circuit and the atomizer; wherein the first switching circuit, the atomizer and the second switching circuit are electrically connected in series and are configured such that the atomizer is switched on when the first switching circuit and the second switching circuit are switched on simultaneously; wherein the controller is adapted to control switching-on or switching-off the first switching circuit and to provide pulse-width modulation, PWM, signals to the driving circuit; and wherein the driving circuit is electrically connected with the controller and is configured for driving to switch on or switch off the second switching circuit based on the PWM signals; characterised in that the driving circuit comprises a trigger circuit, a monostable circuit and a PWM circuit; the trigger circuit is electrically connected with the battery assembly, the controller, the monostable circuit and the PWM circuit; and the trigger circuit is configured for triggering the controller to decide whether or not the monostable circuit is provided with PWM signals. atomizer, wherein the output control circuit further comprises a controller, a first switching circuit, a driving circuit and a second switching circuit, wherein the first switching circuit is electrically connected with the battery assembly, the controller and the atomizer; wherein the controller is electrically connected with the battery assembly; wherein the second switching circuit is electrically connected with the battery assembly, the driving circuit and the atomizer; wherein the first switching circuit, the atomizer and the second switching circuit are electrically connected in series and are configured such that the atomizer is switched on when the first switching circuit and the second switching circuit are switched on simultaneously; wherein the controller is adapted to control switching-on or switching-off the first switching circuit and to provide pulse-width modulation, PWM, signals to the driving circuit; and wherein the driving circuit is electrically connected with the controller and is configured for driving to switch on or switch off the second switching circuit based on the PWM signals; characterised in that the driving circuit comprises a trigger circuit, a monostable circuit and a PWM circuit; the trigger circuit is electrically connected with the battery assembly, the controller, the monostable circuit and the PWM circuit; and the trigger circuit is configured for triggering the controller to decide whether or not the monostable circuit is provided with PWM signals.
A paper feeding apparatus comprising: a pickup roller; a knock-up plate to accommodate recording media thereon and to move between a pickup position at which a recording medium contacts with the pickup roller and a release position at which the recording medium and the pickup roller are separated from each other; a forward roller to transfer a recording medium picked up by the pickup roller; a retard roller to move between a contact position at which the retard roller contacts with the forward roller to prevent a multiple-paper transfer by applying a frictional force to a rear side of a recording medium being transferred between the retard roller and the forward roller and a separation position at which the retard roller is separated from the forward roller; a first control unit to move the knock-up plate to the pickup position and the release position; and a second control unit to move the retard roller to the contact position and the separation position, wherein the first control unit and the second control unit are driven by a single driving motor. a pickup roller; a knock-up plate to accommodate recording media thereon and to move between a pickup position at which a recording medium contacts with the pickup roller and a release position at which the recording medium and the pickup roller are separated from each other; a forward roller to transfer a recording medium picked up by the pickup roller; a retard roller to move between a contact position at which the retard roller contacts with the forward roller to prevent a multiple-paper transfer by applying a frictional force to a rear side of a recording medium being transferred between the retard roller and the forward roller and a separation position at which the retard roller is separated from the forward roller; a first control unit to move the knock-up plate to the pickup position and the release position; and a second control unit to move the retard roller to the contact position and the separation position, wherein the first control unit and the second control unit are driven by a single driving motor.
. A method for separating cells, comprising or consisting of the following steps: (a) providing a sample containing at least two different types of cells; (b) contacting the sample with a cell culture substrate comprising a temperature-responsive polymer layer, wherein the temperature-responsive polymer layer exhibits a lower critical solution temperature (LCST) of 10 to 50 °C; (c) subjecting the cell culture substrate and the cells to medium conditions comprising temperature conditions which allow the two different types of cells to adhere to the cell culture substrate; (d) modifying the temperature conditions of step (c) to decrease adherence of at least one first type of cells to the cell culture substrate, wherein the adherence of at least one second type of cells remains essentially unaffected; (e) optionally flushing the cell culture substrate of step (d) with a suitable cell culture medium or solvent to support the release of the at least one first type of cells with decreased adherence to the cell culture substrate; (f) optionally agitating the cell culture vessel after step (d) or optionally after step (e) to support the release of the at least one first type of cells with decreased adherence to the cell culture substrate; (g) separating the at least one first type of cells released from the cell culture substrate in step (d) and/or (e) and/or (f) from the at least one second type of cells that remain adhered to the cell culture substrate. (a) providing a sample containing at least two different types of cells; (b) contacting the sample with a cell culture substrate comprising a temperature-responsive polymer layer, wherein the temperature-responsive polymer layer exhibits a lower critical solution temperature (LCST) of 10 to 50 °C; (c) subjecting the cell culture substrate and the cells to medium conditions comprising temperature conditions which allow the two different types of cells to adhere to the cell culture substrate; (d) modifying the temperature conditions of step (c) to decrease adherence of at least one first type of cells to the cell culture substrate, wherein the adherence of at least one second type of cells remains essentially unaffected; (e) optionally flushing the cell culture substrate of step (d) with a suitable cell culture medium or solvent to support the release of the at least one first type of cells with decreased adherence to the cell culture substrate; (f) optionally agitating the cell culture vessel after step (d) or optionally after step (e) to support the release of the at least one first type of cells with decreased adherence to the cell culture substrate; (g) separating the at least one first type of cells released from the cell culture substrate in step (d) and/or (e) and/or (f) from the at least one second type of cells that remain adhered to the cell culture substrate.
An end link between a composite panel (1, 300, 300') including a first skin and a second skin, defining outer faces of said composite panel, connected by a solid or honeycomb core extending between the first skin and second skin, and a second panel (2, 200) provided with two outer faces defined by two skins separated by a solid or honeycomb core or a box building, for which one of the skins of each of said panels is continued with a tab (17, 24), the tab of a first of said panels being applied, upon linking the panels, to the external face of the skin (10, 26) devoid of tab of a second of said panels, said second panel (2, 200) comprising a straight edge substantially perpendicular to said faces of the second panel, the tab of the second panel, referred to as take-up tab, including in its width a bearing terminal part (b, c), characterised in that the core of the composite panel includes a termination edge, made bevelled relative to said faces of the composite panel (10, 11), the bevelled edge starting from the first skin to extend to the second skin, in that the first skin snugly fits the slope of the bevelled edge to join the second skin and make the tab of the composite panel, referred to as bearing tab, so that the bearing tab bears substantially over its entire width against the bearing part of the face of the second panel receiving the same and defines a substantially rigid reference surface for linking, the tab of the straight-edge panel including a free intermediate part (a) likely to bend to take-up thickness differences between the panels.
Method for producing a fully active stack or a green precursor thereof, comprising: - provision of a sintered or unsintered stack with the sides A, B, C and D respectively extending in the stack direction, made of a plurality of alternately successive ceramic dielectric layers and inner electrode layers (2, 2'), wherein the inner electrode layers (2, 2') are formed respectively continuously with respect to sides A and C and respectively not continuously with respect to either side B or side D; - combination and temporary contacting of the inner electrodes (2, 2'), or the unsintered precursors thereof, contacting the respective side on one of sides B and D via an outer contact; - electrical driving of the inner electrodes driveable via side B and coating of at least the electrically driven inner electrodes, or the unsintered precursors thereof, on side A with a coating material and curing, melting and optionally development of the coating material; - electrical driving of the inner electrodes driveable via side D and coating of at least the electrically driven inner electrodes, or the unsintered precursors thereof, on side C with a coating material and curing, melting and optionally development of the coating material; - application of a burn-in paste on sides A and C, and debinding and burning of the burn-in paste, the coating material being removed; and - separation of the stack to form at least one fully active stack with the sides A', B', C', and D', or a green precursor thereof, with the coated inner electrodes, or the unsintered precursors thereof, on sides A' and C'. - provision of a sintered or unsintered stack with the sides A, B, C and D respectively extending in the stack direction, made of a plurality of alternately successive ceramic dielectric layers and inner electrode layers (2, 2'), wherein the inner electrode layers (2, 2') are formed respectively continuously with respect to sides A and C and respectively not continuously with respect to either side B or side D; - combination and temporary contacting of the inner electrodes (2, 2'), or the unsintered precursors thereof, contacting the respective side on one of sides B and D via an outer contact; - electrical driving of the inner electrodes driveable via side B and coating of at least the electrically driven inner electrodes, or the unsintered precursors thereof, on side A with a coating material and curing, melting and optionally development of the coating material; - electrical driving of the inner electrodes driveable via side D and coating of at least the electrically driven inner electrodes, or the unsintered precursors thereof, on side C with a coating material and curing, melting and optionally development of the coating material; - application of a burn-in paste on sides A and C, and debinding and burning of the burn-in paste, the coating material being removed; and - separation of the stack to form at least one fully active stack with the sides A', B', C', and D', or a green precursor thereof, with the coated inner electrodes, or the unsintered precursors thereof, on sides A' and C'.
A method for preparing a polyribosylribitol phosphate conjugate, said method comprising subjecting a PRP with a lowered molecular weight than native PRP and a carrier protein to a coupling reaction, wherein the PRP conjugate is stored in a solution of pH 5.4 to 6.3 after preparation of the PRP conjugate, and wherein the release of PRPs after preparing the PRP conjugate is suppressed.
An aircraft spherical bearing assembly [100; 200] comprising: a first part, a second part and an intermediate part [104, 106; 204, 206], in which the first part is coupled to the intermediate part [104, 106; 204, 206] to form a first spherical joint about a first centre point, and the intermediate part [104, 106; 204, 206] is coupled to the second part to form a second spherical joint about a second centre point, wherein the first and second centre points are substantially coincident, characterised in that: the intermediate part and the second part are configured to be: rotationally fixed relative to each other below a predetermined torque and; rotationally free relative to each other above the predetermined torque, and in that a load sensing element [108; 300] is provided between the intermediate part and the second part, the load sensing element [108; 300] configured to inhibit rotational movement between the intermediate part and the second part below the predetermined torque and to permit rotational movement between the intermediate part and the second part above the predetermined torque. a first part, a second part and an intermediate part [104, 106; 204, 206], in which the first part is coupled to the intermediate part [104, 106; 204, 206] to form a first spherical joint about a first centre point, and the intermediate part [104, 106; 204, 206] is coupled to the second part to form a second spherical joint about a second centre point, wherein the first and second centre points are substantially coincident, the intermediate part and the second part are configured to be: rotationally fixed relative to each other below a predetermined torque and; rotationally free relative to each other above the predetermined torque, rotationally fixed relative to each other below a predetermined torque and; rotationally free relative to each other above the predetermined torque, and in that a load sensing element [108; 300] is provided between the intermediate part and the second part, the load sensing element [108; 300] configured to inhibit rotational movement between the intermediate part and the second part below the predetermined torque and to permit rotational movement between the intermediate part and the second part above the predetermined torque.
Method of grinding a paper web carrying surface of a transfer belt of a paper machine, wherein during normal operation of the paper machine the transfer belt is installed in a press section of the paper machine, running together with the paper web carried thereon through a press nip of the press section, and wherein during normal operation of the paper machine a doctor blade is applied against the paper web carrying surface of the transfer belt to scrape off contamination from the paper web carrying surface of the transfer belt, wherein the grinding of the paper web carrying surface of the transfer belt is done within the paper machine, without removing the transfer belt from the paper machine, the method comprising the following steps: a) stopping normal operation of the paper machine; b) attaching a grinding member to the doctor blade so that the grinding member gets into contact with the paper web carrying surface of the transfer belt; and c) running the transfer belt with a predetermined speed while pressing the grinding member against the paper web carrying surface of the transfer belt with a predetermined load. a) stopping normal operation of the paper machine; b) attaching a grinding member to the doctor blade so that the grinding member gets into contact with the paper web carrying surface of the transfer belt; and c) running the transfer belt with a predetermined speed while pressing the grinding member against the paper web carrying surface of the transfer belt with a predetermined load.
An apparatus for supplying user inputs to a game computer program for controlling the game program, the apparatus comprising: a base chassis member; at least one depressible trigger mechanism pivotally mounted to the apparatus and resiliently biased to a first position; the base chassis member having an edge defining an end stop limiting movement of the at least one depressible trigger mechanism; and a trigger adjustment system insertable into a void between an end stop of the base chassis member and the at least one depressible trigger mechanism including: a first mechanism for reducing the range of motion of the at least one depressible trigger mechanism, the first mechanism comprising: an arm being arranged such that it extends between a rear edge of the at least one depressible trigger mechanism and the edge of the base chassis member, and having a front edge (15A/56)) providing the end stop, the front edge (15A/56) being disposed closer to said rear edge of the at least one depressible trigger mechanism than to said end stop provided by the edge of the base chassis member such that, when the trigger adjustment system is inserted, the degree of rotation of the pivotally mounted at least one depressible trigger mechanism is reduced. a base chassis member; at least one depressible trigger mechanism pivotally mounted to the apparatus and resiliently biased to a first position; the base chassis member having an edge defining an end stop limiting movement of the at least one depressible trigger mechanism; and a trigger adjustment system insertable into a void between an end stop of the base chassis member and the at least one depressible trigger mechanism including: a first mechanism for reducing the range of motion of the at least one depressible trigger mechanism, the first mechanism comprising: an arm being arranged such that it extends between a rear edge of the at least one depressible trigger mechanism and the edge of the base chassis member, and having a front edge (15A/56)) providing the end stop, the front edge (15A/56) being disposed closer to said rear edge of the at least one depressible trigger mechanism than to said end stop provided by the edge of the base chassis member such that, when the trigger adjustment system is inserted, the degree of rotation of the pivotally mounted at least one depressible trigger mechanism is reduced.