mhurhangee/ep-ind-claims huggingface dataset:
A fastener assembly comprising: - a bolt member having first and second ends and comprising a bolt head at the first end and a shank, at least a part of which is screw threaded; - a nut member for screw threaded engagement with the shank of the bolt member; and - a first drive element (20.1) allocated to the bolt member and a second drive element (20.2) allocated to the nut member, said first and second drive elements (20.1, 20.2) each comprising a body (21.1, 21.2) and being adapted for engagement by a corresponding installation/driving tool; wherein the body (21.1) of the first drive element (20.1) is joined to the bolt member by means of a first interposed interlayer structure (5.1) and the body (21.2) of the second drive element (20.2) is joined to the nut member by means of a second interposed interlayer structure (5.2), the first interlayer structure (5.1) being adapted to fracture in torsional shear and/or tensile stress in response to a first relative rotational and/or tensile force applied to the first drive element (20.1), and the second interlayer structure (5.2) being adapted to fracture in torsional shear and/or tensile stress in response to a second relative rotational and/or tensile force applied to the second drive element (20.2). - a bolt member having first and second ends and comprising a bolt head at the first end and a shank, at least a part of which is screw threaded; - a nut member for screw threaded engagement with the shank of the bolt member; and - a first drive element (20.1) allocated to the bolt member and a second drive element (20.2) allocated to the nut member, said first and second drive elements (20.1, 20.2) each comprising a body (21.1, 21.2) and being adapted for engagement by a corresponding installation/driving tool;
A non-aqueous electrolyte secondary battery cell, in which, in a non-aqueous electrolyte secondary battery, the cell itself has a shape of a cylinder or a polygonal tube with rounded corners; a hard core material is provided at a center of the cell, the core material being an insulating body having a circular or quadrangular cross-section and having a shape of a hollow tube, the core material preventing permeation of an electrolyte; a cell monitoring system is provided inside a hollow part of the core material, the cell monitoring system comprising a voltage sensor, temperature sensor, and balancer for the cell, the voltage sensor, the temperature sensor, and the balancer being attached to the cell monitoring system; a cell basic member constituted by a positive electrode member, separator, and negative electrode member for the non-aqueous electrolyte secondary battery is wound or laminated on the core material serving as a shaft; an electro-conductive terminal electrically connected to a current collector of the positive electrode member and an electro-conductive terminal electrically connected to a current collector of the negative electrode member are provided on the cell, the terminals (10,11) being exposed to outer sides of the cell; and the temperature sensor of the cell monitoring system is attached to a central part of the hollow part of the core material by being firmly adhered to the core material, and the balancer is of a passive type such that, among a plurality of battery cells in a battery pack, battery cells with higher voltages are detected and electric power of these battery cells is converted into heat by means of a resistor, whereby the voltages of these battery cells are aligned with voltages of battery cells with lower voltages and, thereafter, the entirety of the plurality of battery cells are charged and the non-aqueous electrolyte secondary battery cell is connected with a wire which dissipates heat generated at the balancer via the terminal of the positive electrode or the terminal of the negative electrode.
A control unit for controlling a vehicle, the vehicle comprising a first connecting/disconnecting mechanism disposed on a first power transmission path between a first rotating electric machine mounted on the vehicle and an output shaft that drives a wheel, a first rotating electric machine speed sensor that detects a rotation speed of the first rotating electric machine as a first rotation speed, and a wheel speed sensor that detects a rotation speed of the wheel as a wheel speed, characterized in that the control unit comprises: a first calculator that calculates an axle rotation speed representing a rotation speed of the output shaft based on the first rotation speed in a state where the first connecting/disconnecting mechanism is engaged; a monitoring unit that calculates a deviation between the axle rotation speed calculated by the first calculator and the wheel speed; and a second calculator that calculates the axle rotation speed by calibrating the wheel speed based on the calculated deviation in a state where the first connecting/disconnecting mechanism is disengaged. a first calculator that calculates an axle rotation speed representing a rotation speed of the output shaft based on the first rotation speed in a state where the first connecting/disconnecting mechanism is engaged; a monitoring unit that calculates a deviation between the axle rotation speed calculated by the first calculator and the wheel speed; and a second calculator that calculates the axle rotation speed by calibrating the wheel speed based on the calculated deviation in a state where the first connecting/disconnecting mechanism is disengaged.
A method for forming a metallic film on a surface of a non-conductive material, the method comprising the steps of: (i) contacting the surface of the material with a solution comprising a diamine compound of formula H 2 N-R 1 -NH 2 wherein R 1 is selected from the group consisting of C 1 to C 24 linear or branched alkylene and aromatic alkylene, and a di-hydroxyl compound of formula wherein R 8 is selected from the group consisting of H, CH 3, OH, phenyl, CN, NO 2, propanoic acid group, ethylamine group, formic acid group and formaldehyde group, and R 9 and R 10 are independently selected from H and OH, one of R 8, R 9 and R 10 being OH, wherein the mole ratio of to is from 4:1 to 1:1; and (ii) conducting electroless metal plating of the surface of the material using a Pd/Sn colloidal catalyst. (i) contacting the surface of the material with a solution comprising a diamine compound of formula H 2 N-R 1 -NH 2 wherein R 1 is selected from the group consisting of C 1 to C 24 linear or branched alkylene and aromatic alkylene, and a di-hydroxyl compound of formula wherein R 8 is selected from the group consisting of H, CH 3, OH, phenyl, CN, NO 2, propanoic acid group, ethylamine group, formic acid group and formaldehyde group, and R 9 and R 10 are independently selected from H and OH, one of R 8, R 9 and R 10 being OH, wherein the mole ratio of to is from 4:1 to 1:1; and a diamine compound of formula H 2 N-R 1 -NH 2 wherein R 1 is selected from the group consisting of C 1 to C 24 linear or branched alkylene and aromatic alkylene, and a di-hydroxyl compound of formula wherein R 8 is selected from the group consisting of H, CH 3, OH, phenyl, CN, NO 2, propanoic acid group, ethylamine group, formic acid group and formaldehyde group, and R 9 and R 10 are independently selected from H and OH, one of R 8, R 9 and R 10 being OH, wherein the mole ratio of to is from 4:1 to 1:1; and wherein R 8 is selected from the group consisting of H, CH 3, OH, phenyl, CN, NO 2, propanoic acid group, ethylamine group, formic acid group and formaldehyde group, and R 9 and R 10 are independently selected from H and OH, one of R 8, R 9 and R 10 being OH, wherein the mole ratio of to is from 4:1 to 1:1; and (ii) conducting electroless metal plating of the surface of the material using a Pd/Sn colloidal catalyst.
Matrix microelectronic device comprising: - a plurality of cells arranged (100 11,..., 100 mn) according to a matrix, - one or several conductive lines (102 1,..., 102 m, 104 1,..., 104 m) provided to carry a given potential (Vdd, Vss) and to which respectively one or several cells of a row of cells of the matrix are linked, - a plurality of voltage regulating elements (110 11,..., 110 mn, 120 11,..., 120 mn), wherein said regulating elements are each connected between a cell of said plurality of cells and one of said conductive lines, wherein said regulating elements is respectively connected to a single cell among said plurality of cells, said given potential serving as polarisation potential of said regulating elements, said regulating elements are respectively provided to apply to said given cell a regulated polarisation potential (V_reg_Vdd, V_reg_Vss). - a plurality of cells arranged (100 11,..., 100 mn) according to a matrix, - one or several conductive lines (102 1,..., 102 m, 104 1,..., 104 m) provided to carry a given potential (Vdd, Vss) and to which respectively one or several cells of a row of cells of the matrix are linked, - a plurality of voltage regulating elements (110 11,..., 110 mn, 120 11,..., 120 mn),
A front portion of a vehicle structure, in particular of a motor vehicle, including a side sill, a suspension bracket and a wheel housing arranged vertically between the side sill and the suspension bracket, the wheel housing including at least two walls (32, 33) superposed one on the other and delimiting the walls of a hollow body forming a stiffening beam of triangular section, said stiffening beam joining the suspension bracket to the side sill, one of the walls of the said wheel housing is a transverse wall including a lateral edge bent at an acute angle, characterized in that the other of the parts of the wheel housing defines an internal wall includes a front bent edge including an inclined wall forming a right-angled connector and extending to the interior of the acute angle of the lateral edge of the transverse wall, and in that said front portion includes covering strips (34, 35) delimited by the superposition of the transverse and internal walls (32, 33) one on the other, the walls (31, 32, 33) constituting the said wheel housing are fixed to one another by welding realized along each of the covering strips (34, 35).
A hydraulic system of a utility vehicle consisting of a tractor vehicle and a trailer, comprising an auxiliary drive, a hydraulic pump and a first valve arrangement, wherein, in an operating mode, the auxiliary drive is supplied with hydraulic energy by the hydraulic pump via the first valve arrangement, wherein, in addition to the auxiliary drive, the hydraulic pump supplies at least one further hydraulically operated system with hydraulic energy, wherein the hydraulic pump is arranged on the tractor vehicle, and wherein the auxiliary drive is arranged on the trailer, which is able to be coupled to the tractor vehicle, wherein two auxiliary drives are provided, and are arranged and fixed on in each case one wheel suspension of the trailer, characterized in that a second valve arrangement, which is designed for setting the running direction of the auxiliary drive, is provided on the trailer, wherein the first and second valve arrangements (61, 62) are designed either for supplying the two auxiliary drives with equal hydraulic energy or, according to journey and state of movement of the trailer, for supplying one of the drives with more hydraulic energy than the in each case other one.
A method of controlling a double clutch in a vehicle transmission for transferring torque transmission from an active clutch (2a, 2b) to an incoming clutch (2b, 2a), characterized by the following steps: • Preparing the incoming clutch so as to be ready for taking over torque transmission, wherein the preparation is achieved by over actuating the incoming clutch whereby the incoming clutch is actuated more than what is needed to transfer the full engine torque, this over-actuation being maintained before the touch point is expected to be reached, • Providing a feedback signal from the incoming clutch which indicates that the incoming clutch is prepared and has taken over at least a part of the engine torque from the active clutch, • Shutting off the active clutch in a non-proportional way based on receiving the feedback signal. • Preparing the incoming clutch so as to be ready for taking over torque transmission, wherein the preparation is achieved by over actuating the incoming clutch whereby the incoming clutch is actuated more than what is needed to transfer the full engine torque, this over-actuation being maintained before the touch point is expected to be reached, • Providing a feedback signal from the incoming clutch which indicates that the incoming clutch is prepared and has taken over at least a part of the engine torque from the active clutch, • Shutting off the active clutch in a non-proportional way based on receiving the feedback signal.
Arrangement for controlling the opening and/or the closing of a sliding door, notably of a motor vehicle, the arrangement comprising: - a body shell, - a sliding door that slides with respect to the body shell, notably a side door sliding longitudinally or substantially longitudinally, - an incurved guiding rail fixed to the body shell, - a movable support fixed to the sliding door, the movable support comprising a driving means of guiding pin type, of vertical or substantially vertical axis, fixed to the movable support, - a movable carriage mounted to be movable on the guiding rail, the movable carriage being provided with a reception means of rectilinear or substantially rectilinear opening type, for the driving means of the movable support so as to allow a displacement between the movable support and the movable carriage, the reception means extending between a first abutment for the driving means and a second abutment for the driving means, characterized in that the arrangement comprises a locking means such that the movable carriage is locked on the guiding rail between a closed position of the sliding door and an intermediate open position of the sliding door and such that the movable carriage is unlocked on the guiding rail between the intermediate open position and a fully open position of the sliding door, the locking means blocking the movable carriage with respect to the movable support between the intermediate open position and the fully open position of the sliding door, the locking means comprising a latch that pivots with respect to the movable carriage about an axis parallel or substantially parallel to the axis of the driving means, the latch comprising a tip, the locking means comprising a retaining means fixed to the guiding rail, notably a track, the latch cooperating with the retaining means so as to lock and/or unlock the movable carriage on the guiding rail, a notch being formed on the latch opposite the tip with respect to the pivoting axis, the notch, notably of circular or substantially circular form, having a diameter such that it offers a functional play allowing the guiding pin to come be fitted into the notch while being able to generate a pivoting of the latch about the axis. - a body shell, - a sliding door that slides with respect to the body shell, notably a side door sliding longitudinally or substantially longitudinally, - an incurved guiding rail fixed to the body shell, - a movable support fixed to the sliding door, the movable support comprising a driving means of guiding pin type, of vertical or substantially vertical axis, fixed to the movable support, - a movable carriage mounted to be movable on the guiding rail, the movable carriage being provided with a reception means of rectilinear or substantially rectilinear opening type, for the driving means of the movable support so as to allow a displacement between the movable support and the movable carriage, the reception means extending between a first abutment for the driving means and a second abutment for the driving means,
A method for producing a fibroin-like protein, which is fibroin or a fibrous protein including a repetitive sequence represented by formula, REP1-REP2 wherein REP1 is an amino acid sequence consisting of a continuous sequence of one or more amino acids selected from alanine and glycine and REP2 is an amino acid sequence comprising one or more amino acids selected from glycine, serine, glutamine, and alanine, the method comprising: culturing Escherichia coli having a gene encoding the fibroin-like protein in a medium; inducing expression of the gene encoding the fibroin-like protein; (a) reducing the feeding amount of a growth factor during a period after inducing the expression to reduce cell proliferation after inducing the expression, or (b) feeding a feed medium during a period after inducing the expression, wherein a growth factor is not fed during a period after inducing the expression, to reduce cell proliferation after inducing the expression; and collecting the fibroin-like protein, wherein said period after inducing the expression is long enough to improve the production of the fibroin-like protein compared with the production observed under control conditions, and wherein the growth factor is a nitrogen source. culturing Escherichia coli having a gene encoding the fibroin-like protein in a medium; inducing expression of the gene encoding the fibroin-like protein; (a) reducing the feeding amount of a growth factor during a period after inducing the expression to reduce cell proliferation after inducing the expression, or (b) feeding a feed medium during a period after inducing the expression, wherein a growth factor is not fed during a period after inducing the expression, to reduce cell proliferation after inducing the expression; and (a) reducing the feeding amount of a growth factor during a period after inducing the expression to reduce cell proliferation after inducing the expression, or (b) feeding a feed medium during a period after inducing the expression, wherein a growth factor is not fed during a period after inducing the expression, to reduce cell proliferation after inducing the expression; and collecting the fibroin-like protein, wherein said period after inducing the expression is long enough to improve the production of the fibroin-like protein compared with the production observed under control conditions, and wherein the growth factor is a nitrogen source.
A circuitry adapted to operate in a high-temperature environment above 300°C, the circuitry comprising: a differential amplifier having an input terminal coupled to receive a voltage indicative of a sensed parameter of a component in the high-temperature environment; a hybrid load circuitry AC-coupled to the differential amplifier; a voltage regulator circuitry (244, 250') coupled to power the differential amplifier, wherein the differential amplifier, the hybrid load circuitry and the voltage regulator circuitry are disposed in the high-temperature environment; wherein the voltage regulator circuitry comprises a constant current source comprising at least a first semiconductor switch and a first resistor connected between a gate terminal and a source terminal of the first semiconductor switch; and wherein, the constant current source further comprises a cascaded input stage connected to receive an input voltage to be regulated by the voltage regulator; a second resistor having a first lead connected to the gate terminal of the first semiconductor switch and a second lead connected to an output node of the regulator, wherein the constant current source is coupled to provide a voltage reference across the second resistor; and a source follower output stage comprising a second semiconductor switch and a third resistor connected between the output node and a source terminal of the second semiconductor switch, wherein the first lead of the second resistor is connected to apply the generated voltage reference to a gating terminal of the second semiconductor switch. a differential amplifier having an input terminal coupled to receive a voltage indicative of a sensed parameter of a component in the high-temperature environment; a hybrid load circuitry AC-coupled to the differential amplifier; a voltage regulator circuitry (244, 250') coupled to power the differential amplifier, wherein the differential amplifier, the hybrid load circuitry and the voltage regulator circuitry are disposed in the high-temperature environment; wherein the voltage regulator circuitry comprises a constant current source comprising at least a first semiconductor switch and a first resistor connected between a gate terminal and a source terminal of the first semiconductor switch; and wherein, the constant current source further comprises a cascaded input stage connected to receive an input voltage to be regulated by the voltage regulator; a second resistor having a first lead connected to the gate terminal of the first semiconductor switch and a second lead connected to an output node of the regulator, wherein the constant current source is coupled to provide a voltage reference across the second resistor; and a source follower output stage comprising a second semiconductor switch and a third resistor connected between the output node and a source terminal of the second semiconductor switch, wherein the first lead of the second resistor is connected to apply the generated voltage reference to a gating terminal of the second semiconductor switch.
A process for recycling laminated polymeric packaging using ethylene glycol having a recycling process for polymeric packaging, wherein the process is applied to polymeric packaging comprising PET, PE, PP and aluminium, with the consecutive steps: (i) granulation of the polymeric packaging; (ii) immersion of the polymeric packaging in an ethylene glycol bath; (iii) selective dissolution of the polymeric packaging; (iv) separation of polymers, comprising the sub-steps of aluminium separation (4.1) and PE/PP separation (4.2); (v) washing of the polymers after the separation step, removing the glycol residues present in both PE and PP; (vi) grinding the polymers before the washing step; (vii) cleaning and drying the aluminium after the aluminium separation sub-step (4.1); the washing and grinding steps are performed in an industrial equipment capable of cutting and grinding the packaging, having gutters with water and a centrifuge and air blowing drying system. (i) granulation of the polymeric packaging; (ii) immersion of the polymeric packaging in an ethylene glycol bath; (iii) selective dissolution of the polymeric packaging; (iv) separation of polymers, comprising the sub-steps of aluminium separation (4.1) and PE/PP separation (4.2); (v) washing of the polymers after the separation step, removing the glycol residues present in both PE and PP; (vi) grinding the polymers before the washing step; (vii) cleaning and drying the aluminium after the aluminium separation sub-step (4.1);
Device for inspecting tablets, with a product chute which has a product guide surface which is inclined at an angle (β) to the horizontal; and a sensor integrated into the product chute for detecting faulty tablets as they pass through the product chute; characterised in that the product chute has at least a first stationary product guide section and a movably mounted second product guide section which is separated from the first section but which together line up to define the product guide surface, and the sensor has in a first product guide section a passive piezoelectric bending actuator which is connected to the second product guide section wherein the passive piezoelectric bending actuator is connected to a measuring device which during bending of the passive piezoelectric bending actuator measures at least one voltage pulse generated by the passive piezoelectric bending actuator.