mhurhangee/ep-ind-claims huggingface dataset:
Control device for controlling a rotational nozzle for back-flushing at least one filter element of a filter device for filtering a gas, - having a base plate, which has a through-passage opening for filtered gas, - having a console fastened to the base plate, to which a supply pipe is fastened for supplying backflush medium for the rotational nozzle, - having a cylinder body fastened to the console and/or to the supply pipe, which cylinder body contains a cylinder, which surrounds the supply pipe, - having an axially adjustable piston in the cylinder body, which piston in the cylinder separates the control space, which is fluidically connected to an interior of the supply pipe, from a return space open to the environment of the cylinder body, - having a control sleeve, which is axially adjustable and axially guided on the outside of the supply pipe and which is connected to the piston, - having a baffle plate for control of the through-passage opening, which is connected to the control sleeve, - wherein the baffle plate, the control sleeve and the piston form a unit, which depending on the pressure difference between control space and return space is adjustable between a closed position, in which the baffle plate closes the through-passage opening, and an open position, in which the baffle plate opens the through-passage opening, characterised in that the baffle plate is held in a tiltable manner on the control sleeve for varying an angle of inclination between a longitudinal central axis of the control sleeve and a longitudinal central axis of the baffle plate. - having a base plate, which has a through-passage opening for filtered gas, - having a console fastened to the base plate, to which a supply pipe is fastened for supplying backflush medium for the rotational nozzle, - having a cylinder body fastened to the console and/or to the supply pipe, which cylinder body contains a cylinder, which surrounds the supply pipe, - having an axially adjustable piston in the cylinder body, which piston in the cylinder separates the control space, which is fluidically connected to an interior of the supply pipe, from a return space open to the environment of the cylinder body, - having a control sleeve, which is axially adjustable and axially guided on the outside of the supply pipe and which is connected to the piston, - having a baffle plate for control of the through-passage opening, which is connected to the control sleeve, - wherein the baffle plate, the control sleeve and the piston form a unit, which depending on the pressure difference between control space and return space is adjustable between a closed position, in which the baffle plate closes the through-passage opening, and an open position, in which the baffle plate opens the through-passage opening, characterised in that the baffle plate is held in a tiltable manner on the control sleeve for varying an angle of inclination between a longitudinal central axis of the control sleeve and a longitudinal central axis of the baffle plate.
A plate for adjusting the angle of the medial compartment of the ulna, the plate comprising: a substantially planar first side; a non-planar second side that is opposite the first side; and a plurality of screw holes formed in the plate from the first side of the plate to the second side of the plate for receiving screws to attach the plate to bone, wherein: the second side is shaped to create a first portion and a second portion; in the first portion of the plate the second side comprises a plurality of planar surface regions which lie in a plane that is substantially parallel to a portion of the first side; in the second portion of the plate the second side comprises a plurality of planar surface regions which lie in a plane that is angled relative to a portion of the first side; in the second portion the distance between the first side and the second side increases from an end of the plate towards the first portion such that the second portion is widest proximal to the first portion; and the plate further comprising an angled portion that connects the widest part of the second portion with the first portion. a substantially planar first side; a non-planar second side that is opposite the first side; and a plurality of screw holes formed in the plate from the first side of the plate to the second side of the plate for receiving screws to attach the plate to bone, the second side is shaped to create a first portion and a second portion; in the first portion of the plate the second side comprises a plurality of planar surface regions which lie in a plane that is substantially parallel to a portion of the first side; in the second portion of the plate the second side comprises a plurality of planar surface regions which lie in a plane that is angled relative to a portion of the first side; in the second portion the distance between the first side and the second side increases from an end of the plate towards the first portion such that the second portion is widest proximal to the first portion; and the plate further comprising an angled portion that connects the widest part of the second portion with the first portion.
A control apparatus for a vehicle, the vehicle comprising an engine, an automatic transmission comprising a torque converter, and a tachometer that displays an actual number of rotations (Ne) of the engine, the control apparatus comprising: a determination unit that determines whether or not a start condition is established,; and a display control unit that causes a virtual number of rotations (Na) to be displayed on the tachometer instead of the actual number of rotations (Ne) when it is determined by the determination unit that the start condition is established, characterized in that: the start condition includes the torque converter is in a non-lock-up state and the vehicle is starting, and in that the display control unit calculates an acting number of rotations (Naa) by referring to the actual number of rotations (Ne) and a number of rotations (Nc) on a driving wheel side relative to the torque converter in the automatic transmission, and causes the acting number of rotations (Naa) to be displayed on the tachometer as the virtual number of rotations (Na). a determination unit that determines whether or not a start condition is established,; and a display control unit that causes a virtual number of rotations (Na) to be displayed on the tachometer instead of the actual number of rotations (Ne) when it is determined by the determination unit that the start condition is established, the start condition includes the torque converter is in a non-lock-up state and the vehicle is starting, and in that the display control unit calculates an acting number of rotations (Naa) by referring to the actual number of rotations (Ne) and a number of rotations (Nc) on a driving wheel side relative to the torque converter in the automatic transmission, and causes the acting number of rotations (Naa) to be displayed on the tachometer as the virtual number of rotations (Na).
A process of purifying a polycarbonate comprising: polymerizing a dihydroxy compound and a carbonate source via an interfacial reaction in the presence of a catalyst to form a product mixture comprising an aqueous phase and an organic phase, wherein the organic phase comprises the polycarbonate, the catalyst, ions, and a solvent having a boiling point T b at atmospheric pressure; heating the product mixture to a temperature greater than or equal to the boiling point T b to form a heated product mixture having an elevated temperature; separating the aqueous phase and the organic phase of the heated product mixture at an elevated temperature greater than or equal to the boiling point T b + 10°C to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase; and extracting the ions from the separated organic phase to form a purified polycarbonate; wherein if a centrifuge is used in the extracting of the catalyst, the extracting of the ions, or both, the process further comprises cooling a stream entering the centrifuge to a temperature less than the boiling point T b. polymerizing a dihydroxy compound and a carbonate source via an interfacial reaction in the presence of a catalyst to form a product mixture comprising an aqueous phase and an organic phase, wherein the organic phase comprises the polycarbonate, the catalyst, ions, and a solvent having a boiling point T b at atmospheric pressure; heating the product mixture to a temperature greater than or equal to the boiling point T b to form a heated product mixture having an elevated temperature; separating the aqueous phase and the organic phase of the heated product mixture at an elevated temperature greater than or equal to the boiling point T b + 10°C to form a separated organic phase and a separated aqueous phase; extracting the catalyst from the separated organic phase; and extracting the ions from the separated organic phase to form a purified polycarbonate; wherein if a centrifuge is used in the extracting of the catalyst, the extracting of the ions, or both, the process further comprises cooling a stream entering the centrifuge to a temperature less than the boiling point T b.
A battery module, characterized by comprising: a plurality of battery units arranged in a horizontal direction, wherein each battery unit comprises a plurality of batteries stacked in a vertical direction, the plurality of batteries comprise a first battery and a second battery stacked in a vertical direction, the first battery and the second battery each comprise a first electrode terminal, a second electrode terminal, and an explosion-proof piece located between the first electrode terminal and the second electrode terminal; and a busbar assembly, configured to electrically connect the plurality of battery units, wherein the busbar assembly comprises a first busbar connected to the first electrode terminal of the first battery and the second electrode terminal of the second battery, wherein in a first direction perpendicular to the vertical direction and the horizontal direction, the first busbar comprises a first weak zone that at least partially overlaps with the explosion-proof piece of the first battery, wherein the first weak zone is configured to fracture when the explosion-proof piece of the first battery is burst, to cause an open circuit between the first battery and the second battery. a plurality of battery units arranged in a horizontal direction, wherein each battery unit comprises a plurality of batteries stacked in a vertical direction, the plurality of batteries comprise a first battery and a second battery stacked in a vertical direction, the first battery and the second battery each comprise a first electrode terminal, a second electrode terminal, and an explosion-proof piece located between the first electrode terminal and the second electrode terminal; and a busbar assembly, configured to electrically connect the plurality of battery units, wherein the busbar assembly comprises a first busbar connected to the first electrode terminal of the first battery and the second electrode terminal of the second battery, wherein in a first direction perpendicular to the vertical direction and the horizontal direction, the first busbar comprises a first weak zone that at least partially overlaps with the explosion-proof piece of the first battery, wherein the first weak zone is configured to fracture when the explosion-proof piece of the first battery is burst, to cause an open circuit between the first battery and the second battery.
A method for controlling one or more lights (132a-132n) of a light system supported by a vehicle and configured to illuminate a rearward environment of the vehicle, the method being characterised in that it comprises: receiving, at data processing hardware, sensor system data from a sensor system supported by the vehicle; determining, at the data processing hardware, a current status associated with the one or more lights (132a-132n) of the vehicle light system; determining, at the data processing hardware, an updated status associated with the one or more lights (132a-132n) of the vehicle light system based on the sensor system data; and transmitting, from the data processing hardware to the light system in communication with the data processing hardware, instructions causing the one or more lights (132a-132n) to adjust their current status based on the updated status, wherein the sensor system data includes driver data indicative of a status of a driver in the vehicle associated with a driver seat and a movement status indicative of the driver moving from a side of the vehicle to a back of the vehicle, and wherein when the driver status indicates that the driver is not sitting in the driver seat and the movement status indicates that the driver has moved from the side to the back of the vehicle, then the instructions cause the one or more lights (132, 132a-n) to change to an ON status or maintain an ON status of the one or more vehicle lights (132, 132a-n). receiving, at data processing hardware, sensor system data from a sensor system supported by the vehicle; determining, at the data processing hardware, a current status associated with the one or more lights (132a-132n) of the vehicle light system; determining, at the data processing hardware, an updated status associated with the one or more lights (132a-132n) of the vehicle light system based on the sensor system data; and transmitting, from the data processing hardware to the light system in communication with the data processing hardware, instructions causing the one or more lights (132a-132n) to adjust their current status based on the updated status, wherein the sensor system data includes driver data indicative of a status of a driver in the vehicle associated with a driver seat and a movement status indicative of the driver moving from a side of the vehicle to a back of the vehicle, and wherein when the driver status indicates that the driver is not sitting in the driver seat and the movement status indicates that the driver has moved from the side to the back of the vehicle, then the instructions cause the one or more lights (132, 132a-n) to change to an ON status or maintain an ON status of the one or more vehicle lights (132, 132a-n).
An apparatus for introducing banknotes into a banknote processing device, which apparatus has a base body, a support surface for the placing of a banknote to be introduced on its flat side, at least one lateral positioning flank (12, 13) for the lateral positioning and/or for the exactly fitting connection of the apparatus to the banknote processing device and setting means for the variable setting of the location of the positioning flank (12, 13) transversely to the direction of introduction of the banknote through the apparatus, characterized in that the setting means comprise an adapter element (17, 18) which is adjustably mounted on an installation surface (19, 20) of the base body formed as a wedge surface and is adjustable transversely to the direction of introduction by displacement on the wedge surface.
An aluminum alloy comprising 9.0 - 10.5 wt. % Si, 0.15 - 0.25 wt. % Fe, 0.30 - 0.40 wt. % Cu, 0.05 - 0.15 wt. % Mn, 0.15 - 0.30 wt. % Mg, 0.15 - 0.30 wt. % Zn, 0.10 - 0.35 wt. % Bi, up to 0.15 wt. % Sb, up to 0.05 wt. % Sr, up to 0.05 wt. % Na, up to 0.10 wt. % Ti, up to 0.15 wt. % of impurities, and balance Al.
A printer for printing plate-like media, in particular for printing marker cards with markers for marking electrical appliances, wherein the printer has a housing and at least one input station for the marker cards to be printed, a printing station with a printing device and an output station for printed marker cards, wherein the output station has a magazining device which has one or more guide devices (2021a, 2021b) so that the output station, with the magazining device, can be drawn from a position pushed into the housing into a position outside the housing and can be pushed back into the housing of the printer, and in that the respective guide device (2021a, 2021b) also has its own stacking unit (204a, 204b) which is pivotably mounted.
A glass sheet cutting machine, comprising: - a support surface for at least one glass sheet to be cut; said support surface extending along a horizontal longitudinal direction from an inlet to an outlet; - a control unit; - a cutting unit controlled by said control unit so as to carry out at least one cutting operation at a cutting bridge, in a cutting direction transverse to the longitudinal direction; - a first squaring system comprising: a) a first reference shoulder arranged orthogonally to the longitudinal direction and comprising a row of stop pins, which engage respective grooves 10 and aligned with one another along a horizontal axis orthogonal to the longitudinal direction; b) a longitudinal movement device (5; 24) controlled by said control unit so as to position, the one against the other, said stop pins and a front or rear edge of the glass sheet to be cut; - a second reference shoulder arranged parallel to the longitudinal direction; characterized in that said second reference shoulder comprises a row of reference pins aligned and spaced apart from one another along a horizontal axis parallel to said longitudinal direction and constituting part of a second squaring system, comprising a transverse movement device carried by said cutting bridge and controlled by said control unit so as to move the glass sheet to be cut along an axis transverse to the longitudinal direction until resting a first side edge of the glass sheet to be cut against said second reference shoulder; said control unit being configured so as to select and command the one or the other of said first and second squaring systems according to the shape of the glass sheet to be cut and/or according to the length of at least one of the edges of the glass sheet to be cut. - a support surface for at least one glass sheet to be cut; said support surface extending along a horizontal longitudinal direction from an inlet to an outlet; - a control unit; - a cutting unit controlled by said control unit so as to carry out at least one cutting operation at a cutting bridge, in a cutting direction transverse to the longitudinal direction; - a first squaring system comprising: a) a first reference shoulder arranged orthogonally to the longitudinal direction and comprising a row of stop pins, which engage respective grooves 10 and aligned with one another along a horizontal axis orthogonal to the longitudinal direction; b) a longitudinal movement device (5; 24) controlled by said control unit so as to position, the one against the other, said stop pins and a front or rear edge of the glass sheet to be cut; a) a first reference shoulder arranged orthogonally to the longitudinal direction and comprising a row of stop pins, which engage respective grooves 10 and aligned with one another along a horizontal axis orthogonal to the longitudinal direction; b) a longitudinal movement device (5; 24) controlled by said control unit so as to position, the one against the other, said stop pins and a front or rear edge of the glass sheet to be cut; - a second reference shoulder arranged parallel to the longitudinal direction;
Process for the treatment of the ruggedness of a road surface having a mean profile depth of predetermined value to increase the absorption coefficient of the road surface, comprising the following steps: - increasing the mean profile depth of said surface by generating new cavities and/or by emphasizing already existing cavities on the surface; - reducing the mean profile depth of said surface, in order to restore it to about the predetermined value, by performing smoothing of said surface such as to reduce the bumps which emerge from said surface, wherein said cavities, operating as Helmholtz resonators, determine an increase of the coefficient of sound absorption of the surface, wherein said step of increasing the mean profile depth comprises directing a fluid jet at high pressure towards said surface, wherein said mean profile depth is defined as the arithmetic mean of single depth values of said road surface. - increasing the mean profile depth of said surface by generating new cavities and/or by emphasizing already existing cavities on the surface; - reducing the mean profile depth of said surface, in order to restore it to about the predetermined value, by performing smoothing of said surface such as to reduce the bumps which emerge from said surface,
A gate insulating film forming agent for a thin-film transistor comprising: an oligomer compound or a polymer compound, characterized in that the oligomer compound or the polymer compound contains a repeating unit having a triazinetrione ring containing a hydroxyalkyl-containing group as a substituent on a nitrogen atom. an oligomer compound or a polymer compound, characterized in that the oligomer compound or the polymer compound contains a repeating unit having a triazinetrione ring containing a hydroxyalkyl-containing group as a substituent on a nitrogen atom.
A method for detecting the presence of E. coli O157:H7 in a sample, said sample comprising nucleic acids, said method comprising: (a) providing a reaction mixture comprising (i) primer pair SEQ ID NO:1 and SEQ ID NO:2, (ii) primer pair SEQ ID NO:3 and SEQ ID NO:4, (iii) primer pair SEQ ID NO:5 and SEQ ID NO:6, or (iv) primer pair SEQ ID NO:7 and SEQ ID NO:8, or a combination of primer pairs (i)-(iv); (b) performing PCR amplification of said nucleic acids of said sample using the reaction mixture of step (a); and (c) detecting the amplification of step (b), whereby a positive detection of amplification indicates the presence of E. coli O157:H7 in the sample. (a) providing a reaction mixture comprising (i) primer pair SEQ ID NO:1 and SEQ ID NO:2, (ii) primer pair SEQ ID NO:3 and SEQ ID NO:4, (iii) primer pair SEQ ID NO:5 and SEQ ID NO:6, or (iv) primer pair SEQ ID NO:7 and SEQ ID NO:8, or a combination of primer pairs (i)-(iv); (b) performing PCR amplification of said nucleic acids of said sample using the reaction mixture of step (a); and (c) detecting the amplification of step (b), whereby a positive detection of amplification indicates the presence of E. coli O157:H7 in the sample.