mhurhangee/ep-ind-claims huggingface dataset:
Quick coupler for coupling a tool provided with an adapter to a working machine, on which the quick coupler can be arranged, having a locking device for producing a mechanical connection between the working machine and the tool, the locking device having at least one locking element (22, 24) on which a spring force acts in the direction of a locking position, and a hydraulic piston that is connected to the locking element (22, 24) and which is displaceably arranged in a cylinder and divides the cylinder interior into an opening chamber and a locking chamber, wherein the opening chamber is connected to a hydraulic valve via a first hydraulic conduit so as to enable hydraulic pressure to be supplied to the opening chamber and thus to the hydraulic piston as required for the hydraulic piston and the locking element (22, 24) connected to the hydraulic piston to be displaced from a locking position to an opening position thereof against the spring force, which locking chamber is connected to a second hydraulic conduit and can be supplied with hydraulic oil as required, characterized in that the first hydraulic conduit and the second hydraulic conduit are short-circuited to each other via a connecting conduit and are connected to a hydraulic valve via a single hydraulic supply conduit, and in that a valve which blocks the return flow from the locking chamber is arranged in the second hydraulic conduit and is actuated by a control conduit connected to the first hydraulic conduit when there is an increase in pressure in the first hydraulic conduit and thus the opening movement.
A pivoting hinge for a window, in particular residential roof window, having a frame bearing that can be located at a blind frame of the window and having a sash bearing that can be located at a sash frame of the window, wherein the frame bearing comprises a base body to which at least one intermediate element and at least one cover element are fixed by means of bolt- like connections in order to form a slide guide, characterised in that bolt-like domes (20, 21) are integrally formed on the intermediate element on both sides (18, 19) thereof, said domes (20, 21) engaging apertures (16, 17) of the base body and the cover element and locating the base body and the cover element there by deformation.
An inflatable apparatus comprising: a first inflatable portion which serves as a main structural element of the apparatus; a selectively inflatable holding portion which extends into the first inflatable portion and which defines a holding aperture bounded by a holding surface (42, 42a, 42b), the holding surface being adapted for frictional engagement with a device inserted into the holding aperture, wherein the holding portion is selectively inflatable such that such frictional engagement can be adjusted characterised in that the apparatus further comprises a second inflatable portion, located within the first inflatable portion, which serves as a secondary structural element of the inflatable apparatus. a first inflatable portion which serves as a main structural element of the apparatus; a selectively inflatable holding portion which extends into the first inflatable portion and which defines a holding aperture bounded by a holding surface (42, 42a, 42b), the holding surface being adapted for frictional engagement with a device inserted into the holding aperture, wherein the holding portion is selectively inflatable such that such frictional engagement can be adjusted characterised in that the apparatus further comprises a second inflatable portion, located within the first inflatable portion, which serves as a secondary structural element of the inflatable apparatus.
A monitoring device (10, 20,30, 40) for monitoring the movement of a movement element (3, 13) pivotably mounted about an axis of rotation and driven by means of a drive, wherein the movement element is pivotable between an open and a closed state of an opening to be closed, in particular a hinged door mounted rotatably about an axis of rotation by means of a door hinge and movable about the axis of rotation by means of a motor, wherein the monitoring device has a sensor for the detection of an object and for monitoring a spatial angle (8, 8', 8"), the origin of which is in the area of the axis of rotation, wherein the sensor comprises a transmitter and a receiver for transmitting and receiving electromagnetic detection radiation within the spatial angle and wherein the sensor is designed to emit detection signals, which the receiver generates in the detection of electromagnetic radiation, wherein the monitoring device comprises an evaluation unit for the evaluation of detection signals depending on their position in the spatial angle, wherein the evaluation unit is designed to differentiate between the movement element and an object depending on the current angular position of the movement element, while the angle range, which is assigned to the movement element in its current angular position is hidden, so that the angular range assigned to the movement element either is not taken into consideration in the evaluation of the detection signals or the evaluation unit assumes, that a detection in the angular range assigned to the movement element does not originate from an object, but rather from the movement element, wherein the sensor is mounted in the area of the axis of rotation and the evaluation unit for the evaluation of the detection signals is designed depending on the angular position of the detected radiation in the spatial angle and for determining whether an object was detected and/or which position the detected object has, characterized in that an angle measurement device for measuring the angular position of the movement element is present and that the angle measurement device comprises a lever, which is mechanically coupled to the movement element and is designed to detect the angular position of the movement element by means of the moving of the lever with movement of the movement element.
Inorganic particles for a nonaqueous electrolyte battery, comprising a cation exchanger having a highly crystallized one-dimensional tunnel-like crystal structure, wherein a half width of a peak derived from the one-dimensional tunnel-like crystal structure of the cation exchanger in X-ray diffraction measurement using Cu-Kα ray as a light source is 0.3° or less, and a BET specific surface area of the cation exchanger is 3 m 2 /g or more, and further comprising inorganic particles for mixing, wherein an average thickness of the inorganic particles for mixing is thicker than that of the cation exchanger. a cation exchanger having a highly crystallized one-dimensional tunnel-like crystal structure, wherein a half width of a peak derived from the one-dimensional tunnel-like crystal structure of the cation exchanger in X-ray diffraction measurement using Cu-Kα ray as a light source is 0.3° or less, and a BET specific surface area of the cation exchanger is 3 m 2 /g or more, and further comprising inorganic particles for mixing, wherein an average thickness of the inorganic particles for mixing is thicker than that of the cation exchanger.
Printed circuit comprising a substrate, and a conductive circuit on at least part of a first face of the substrate, the conductive circuit comprising a catalytic ink layer printed on part of the first face of the substrate, a first metal layer deposited on the catalytic ink layer, and a second metal layer deposited on the first metal layer, with the first metal layer being a nickel layer deposited on the catalytic ink layer by means of an electroless metal plating process, and with the second metal layer being a copper layer deposited on the first metal layer by means of a galvanic metal plating process, characterized in that the printed circuit comprises an additional conductive circuit on at least part of a second face of the substrate, the additional conductive circuit comprising an additional catalytic ink layer printed by means of the catalytic ink printing process, a first additional metal layer deposited on the additional catalytic ink layer with the first additional metal layer being a nickel layer deposited by means of the electroless metal plating process, and a second additional metal layer deposited on the first additional metal layer with the second additional metal layer being a copper layer deposited by means of the galvanic metal plating process, the substrate comprises a through opening communicating the first face of the substrate with the second face of the substrate, and the printed circuit comprises a catalytic ink connection layer (3") printed on the contour of the opening by means of the catalytic ink printing process, a nickel metal connecting layer (4") deposited by means of the electroless metal plating process on the catalytic ink connection layer (3") printed on the contour of the opening, and a copper metal connecting layer (5") deposited by means of the galvanic metal plating process on the nickel metal connecting layer (4"), such that the catalytic ink layer printed on the first face of the substrate and the additional catalytic ink layer printed on the second face of the substrate are electrically connected to one another through the catalytic ink connection layer (3"), with the first metal layer and the first additional metal layer being electrically connected to one another by means of the nickel metal connecting layer (4"), and with the second metal layer and the second additional metal layer being electrically connected to one another by means of the copper metal connecting layer (5").
A method of producing a sliding member including a base material portion that is formed of steel, a nitrogen diffusion layer that is formed to have a thickness of 10 μm to 50 μm on a surface side of the base material portion, and a nitrogen compound layer that is formed to have a thickness of 10 μm to 50 μm on a surface side of the nitrogen diffusion layer, and that constitutes an outermost surface, the method being characterized in that the nitrogen compound layer and the nitrogen diffusion layer are formed by performing a first heating process of performing heat treatment on a material formed of steel in an ammonia atmosphere at a temperature of 570°C to 660°C, a second heating process of performing heat treatment on the material in a non-oxidizing and non-ammonia atmosphere at a temperature of 660°C to 690°C subsequently to the first heating process, the temperature in the second heating process being higher than the temperature in the first heating process and being sufficiently higher than 590°C which is the A1 transformation point of Fe-N, an oil cooling process of performing oil cooling treatment at an oil temperature of 60°C to 80°C immediately after the second heating process, and a tempering process of performing tempering treatment at a temperature of 250°C to 400°C while pressurizing a surface side of the material, subsequently to the oil cooling process. the method being characterized in that the nitrogen compound layer and the nitrogen diffusion layer are formed by performing a first heating process of performing heat treatment on a material formed of steel in an ammonia atmosphere at a temperature of 570°C to 660°C, a second heating process of performing heat treatment on the material in a non-oxidizing and non-ammonia atmosphere at a temperature of 660°C to 690°C subsequently to the first heating process, the temperature in the second heating process being higher than the temperature in the first heating process and being sufficiently higher than 590°C which is the A1 transformation point of Fe-N, an oil cooling process of performing oil cooling treatment at an oil temperature of 60°C to 80°C immediately after the second heating process, and a tempering process of performing tempering treatment at a temperature of 250°C to 400°C while pressurizing a surface side of the material, subsequently to the oil cooling process.
Method for the automated replacement of at least one wearing component of a torch of a welding robot, in particular the contact tip for arc welding, comprising: - removing (S2; S4) a wearing component to be replaced by means of a holder at a maintenance station; - attaching (S8; S10) a wearing component serving as a replacement by means of the holder; characterized in that a robot gripper is provided on the robot arm of the welding robot, preferably on the end member thereof, - that the robot arm removes, with the robot gripper, the wearing component detached from the holder (S5; S6) and - that the robot arm inserts, with the robot gripper, the wearing part to be attached as a replacement into the holder (S7; S9). - removing (S2; S4) a wearing component to be replaced by means of a holder at a maintenance station; - attaching (S8; S10) a wearing component serving as a replacement by means of the holder; characterized in that a robot gripper is provided on the robot arm of the welding robot, preferably on the end member thereof, - that the robot arm removes, with the robot gripper, the wearing component detached from the holder (S5; S6) and - that the robot arm inserts, with the robot gripper, the wearing part to be attached as a replacement into the holder (S7; S9).
An imaging device comprising: photovoltaic type pixels that have photoelectric conversion regions generating photovoltaic power for each pixel depending on irradiation light, wherein a PN junction diode is formed in the photoelectric conversion region as a photo-sensor, wherein the photoelectric conversion region is configured of a P-type region, an N-type region, an electrode for ohmic contact with the P-type region, and an electrode for ohmic contact with the N-type region; an element isolation region that is provided between the photoelectric conversion regions of adjacent pixels and in a state of substantially surrounding the photoelectric conversion region and that includes a first element isolation region, a second element isolation region and a third element isolation region, wherein Si0 2 is used for the first element isolation region covering a side of the N-type region opposite to the P-type region, a conductive semiconductor is used for the second element isolation region, and an N-type substrate of the conductive semiconductor functions as the third element isolation region covering a side of the P-type region opposite to the N-type region, wherein the second element isolation region connects the first element isolation region and the third element isolation region; and a P-type region inserted between the second element isolation regions of adjacent pixels. photovoltaic type pixels that have photoelectric conversion regions generating photovoltaic power for each pixel depending on irradiation light, wherein a PN junction diode is formed in the photoelectric conversion region as a photo-sensor, wherein the photoelectric conversion region is configured of a P-type region, an N-type region, an electrode for ohmic contact with the P-type region, and an electrode for ohmic contact with the N-type region; an element isolation region that is provided between the photoelectric conversion regions of adjacent pixels and in a state of substantially surrounding the photoelectric conversion region and that includes a first element isolation region, a second element isolation region and a third element isolation region, wherein Si0 2 is used for the first element isolation region covering a side of the N-type region opposite to the P-type region, a conductive semiconductor is used for the second element isolation region, and an N-type substrate of the conductive semiconductor functions as the third element isolation region covering a side of the P-type region opposite to the N-type region, wherein the second element isolation region connects the first element isolation region and the third element isolation region; and a P-type region inserted between the second element isolation regions of adjacent pixels.
A method of selectively separating milk fat globule membrane fragments and milk fat globules from whey comprising: (a) adding to whey an amount of a whey-soluble zinc salt; and (b) adjusting pH of the whey to be less than 60, (c) wherein the amount of zinc salt added to the whey is sufficient to cause milk fat globule membrane fragments and milk fat globules contained in the whey to precipitate selectively from the whey. (a) adding to whey an amount of a whey-soluble zinc salt; and (b) adjusting pH of the whey to be less than 60, (c) wherein the amount of zinc salt added to the whey is sufficient to cause milk fat globule membrane fragments and milk fat globules contained in the whey to precipitate selectively from the whey.
Method for operating a particulate filter provided for filtering out particulates contained in the exhaust gas of motor vehicle internal combustion engines, in which method a conditioning step is carried out in a new condition of the particulate filter, wherein the conditioning step is carried out in such a way that the particulate removal rate of the particulate filter is increased compared to the initial value prevailing in the new condition and remains, on completion of the conditioning step, in the subsequent intended use of the particulate filter substantially constantly above a threshold value increased compared to the initial value, wherein, for carrying out the conditioning step, - the internal combustion engine is at least temporarily operated such that the exhaust gas emitted by the internal combustion engine has a higher particulate content compared to normal operation, or - the particulate filter is connected to a conditioning device external to the vehicle. - the internal combustion engine is at least temporarily operated such that the exhaust gas emitted by the internal combustion engine has a higher particulate content compared to normal operation, or - the particulate filter is connected to a conditioning device external to the vehicle.
A method of wireless communication for a user equipment, UE, comprising: receiving, at a first location in a downlink signal, preemption information that identifies a second location of a first type of traffic that preempts a second type of traffic, the first location relative to the second location being based at least in part on a hybrid automatic repeat request, HARQ, configuration of the UE, the HARQ configuration indicating a configuration to provide a same-slot or a next-slot HARQ response; receiving the first type of traffic at the second location; generating a HARQ response associated with the first type of traffic and/or the second type of traffic; and transmitting the HARQ response based at least in part on the HARQ configuration of the UE. receiving, at a first location in a downlink signal, preemption information that identifies a second location of a first type of traffic that preempts a second type of traffic, the first location relative to the second location being based at least in part on a hybrid automatic repeat request, HARQ, configuration of the UE, the HARQ configuration indicating a configuration to provide a same-slot or a next-slot HARQ response; receiving the first type of traffic at the second location; generating a HARQ response associated with the first type of traffic and/or the second type of traffic; and transmitting the HARQ response based at least in part on the HARQ configuration of the UE.
Inlet device for feeding bulk material, with a machine housing, wherein a baffle plate, a rotatably mounted feed flap defining a gap between the baffle plate and the feed flap and being connected with a rotation axis, and upper and lower sensors (31, 32) for measuring the amount of the bulk material present in a space between the baffle plate, the feed flap and the side walls of the machine housing, are provided inside the machine housing; wherein the inlet device further comprises a motor unit provided outside the machine housing and being fixedly connected to the rotation axis; wherein the motor unit is connectable to the feed flap via the rotation axis and forms a counterweight to the feed flap, wherein the motor unit comprises a motor and a carriage, wherein the motor is slidable of the carriage on a linear axis perpendicular to the rotation axis for changing the center of gravity of the motor unit on the linear axis relative to the rotation axis; wherein the size of the gap between the baffle plate and the feed flap depends on the position of the motor on the linear axis and the weight of the bulk material loaded on the feed flap. a machine housing, wherein a baffle plate, a rotatably mounted feed flap defining a gap between the baffle plate and the feed flap and being connected with a rotation axis, and upper and lower sensors (31, 32) for measuring the amount of the bulk material present in a space between the baffle plate, the feed flap and the side walls of the machine housing, are provided inside the machine housing; wherein the inlet device further comprises a motor unit provided outside the machine housing and being fixedly connected to the rotation axis; wherein the motor unit is connectable to the feed flap via the rotation axis and forms a counterweight to the feed flap, wherein the motor unit comprises a motor and a carriage, wherein the motor is slidable of the carriage on a linear axis perpendicular to the rotation axis for changing the center of gravity of the motor unit on the linear axis relative to the rotation axis; wherein the size of the gap between the baffle plate and the feed flap depends on the position of the motor on the linear axis and the weight of the bulk material loaded on the feed flap.
Method for producing a circuit-breaker pole part by molding an external insulating sleeve with insulation material, mounting a vacuum interrupter insert inside the insulating sleeve, electrically connecting the vacuum interrupter insert with an upper electrical terminal and a lower electrical terminal arranged in the wall section of the insulating sleeve, with the following production steps: - molding the external insulating sleeve, wherein at least only the upper electrical terminal is embedded in the insulation material during moulding process, - coating the vacuum interrupter insert with an extra layer made of insulation material and optionally an at least towards the bottom line open air gap directly between the extra layer and the insulator sleeve and/or between the vacuum interrupter insert and the insulator sleeve for better electrical performance, - mounting the coated vacuum interrupter insert by screwing on a threaded bolt onto the upper electrical terminal before moulding or after moulding, with further following steps, - preassembling the vacuum interrupter to the upper terminal, - put this preassembled arrangement into the mould, - mould the external insulating sleeve together with the lower terminal order to form a complete assembly thereby, characterised by - an insulation cover is placed also as a sealing part between the upper terminal and the mould, and said insulation cover being an insulation cup made of an insulating material provided covering the bottom area of the upper terminal inner side between a front side of the vacuum interrupter insert and the insulating sleeve. - molding the external insulating sleeve, wherein at least only the upper electrical terminal is embedded in the insulation material during moulding process, - coating the vacuum interrupter insert with an extra layer made of insulation material and optionally an at least towards the bottom line open air gap directly between the extra layer and the insulator sleeve and/or between the vacuum interrupter insert and the insulator sleeve for better electrical performance, - mounting the coated vacuum interrupter insert by screwing on a threaded bolt onto the upper electrical terminal before moulding or after moulding, with further following steps, - preassembling the vacuum interrupter to the upper terminal, - put this preassembled arrangement into the mould, - mould the external insulating sleeve together with the lower terminal order to form a complete assembly thereby, - an insulation cover is placed also as a sealing part between the upper terminal and the mould, and