mhurhangee/ep-ind-claims huggingface dataset:
A dispensing apparatus, comprising a body, two inlets (22a, 22b) for flowable masses and two outlets through which the flowable masses can be dispensed, with one inlet being connected to one outlet and the other inlet being connected to the other outlet through the body, wherein the two inlets (22a, 22b) are spaced apart from one another by a first spacing and the two outlets are spaced apart from one another by a second spacing, and with the second spacing being larger than the first spacing; characterized in that a connection ring is provided, the connection ring being adapted to engage the body and the connection ring being pre-mounted at the body; and in that the dispensing apparatus is adapted to be non-releasably connected to a two-component cartridge via the connection ring for the supply of the flowable masses to the inlets.
A method for monitoring a working process, in which a workpiece is worked continuously along each of at least one predetermined working path (x Bi) on the workpiece during at least one working time period (Δt Bi) by means of a working tool arranged on a collaborative robot, wherein the environment of the collaborative robot is monitored and an object in a manipulation region of the collaborative robot around one of the predetermined working paths (x Bi) on the workpiece is detected, characterized in that in the event that an object is detected in the manipulation region of the collaborative robot around one of the predetermined working paths (x Bi) on the workpiece within an instruction phase (Δt I) an instruction signal is emitted and the working process is continued along one of the predetermined working paths (x Bi) on the workpiece without interruption, characterized in, that as instruction signal a command signal to the collaborative robot for the re-planning of the working process is emitted, and in accordance with the emitted command signal, in the event that an object is detected in the manipulation region around one of the predetermined working paths (x Bi) of the collaborative robot, the working process is changed by the sequence of the predetermined working paths (x Bi) being altered.
An inspection device for riveted surfaces comprising: - an elongated casing, having an upper end (3.1) and a lower end (3.2), the lower end (3.2) having a flat base containing a hole, - an elongated tracker movably mounted within the casing, and having an inner end (7.1) and an outer end (7.2), - a reference element movably mounted within the casing, and having a reference end (6.1), - an indicator element, - and, an electric circuit being in electric contact with the tracker, the reference element, and the indicator element, wherein the tracker is mounted to be movably between two extreme positions, - a tracker resting position (R1, R2), in which the outer end of the tracker (7.2) is mounted so as to project through the hole of the casing beyond the plane defined by the flat base of the lower end of the casing (3.2), - and a tracker working position (W1, W2), in which the outer end of the tracker (7.2) is at least at one position being flush to the plane defined by the flat base of the lower end of the casing (3.2), and wherein the circuit is configured to activate the indicator element when during the working position (W1, W2), the distance between the outer end of the tracker (7.2) and the reference end (6.1) of the reference element is greater than a predefined value. - an elongated casing, having an upper end (3.1) and a lower end (3.2), the lower end (3.2) having a flat base containing a hole, - an elongated tracker movably mounted within the casing, and having an inner end (7.1) and an outer end (7.2), - a reference element movably mounted within the casing, and having a reference end (6.1), - an indicator element, - and, an electric circuit being in electric contact with the tracker, the reference element, and the indicator element, - a tracker resting position (R1, R2), in which the outer end of the tracker (7.2) is mounted so as to project through the hole of the casing beyond the plane defined by the flat base of the lower end of the casing (3.2), - and a tracker working position (W1, W2), in which the outer end of the tracker (7.2) is at least at one position being flush to the plane defined by the flat base of the lower end of the casing (3.2),
A method of making a flexible light engine having a desired length, comprising: providing a flexible strip including a first and second conductive path; coupling a string of solid state light sources, comprising a plurality of solid state light sources connected in series, to the first conductive path of the flexible strip; coupling a voltage balancer to the flexible strip adjacent to a designated cut location, which is located between two serially adjacent solid state light sources of the plurality of solid state light sources; cutting the flexible strip at the designated cut location to establish the desired length of the flexible light engine; whereby the flexible light engine comprises a remaining portion of the flexible strip and two or more remaining solid state light sources of the plurality of solid state light sources, the two or more remaining solid state light sources coupled to the remaining portion of the flexible strip; coupling a constant current power supply to the first and second conductive path of the remaining portion of the flexible strip opposite the designated cut location of said cutting; wherein coupling the voltage balancer comprises coupling of a switch circuit serially connected to the voltage balancer, such that said cutting causes the switch circuit to automatically change its state and therewith to connect the voltage balancer in series with the remaining two or more solid state light sources to the conductive path. providing a flexible strip including a first and second conductive path; coupling a string of solid state light sources, comprising a plurality of solid state light sources connected in series, to the first conductive path of the flexible strip; coupling a voltage balancer to the flexible strip adjacent to a designated cut location, which is located between two serially adjacent solid state light sources of the plurality of solid state light sources; cutting the flexible strip at the designated cut location to establish the desired length of the flexible light engine; whereby the flexible light engine comprises a remaining portion of the flexible strip and two or more remaining solid state light sources of the plurality of solid state light sources, the two or more remaining solid state light sources coupled to the remaining portion of the flexible strip; coupling a constant current power supply to the first and second conductive path of the remaining portion of the flexible strip opposite the designated cut location of said cutting; wherein coupling the voltage balancer comprises coupling of a switch circuit serially connected to the voltage balancer, such that said cutting causes the switch circuit to automatically change its state and therewith to connect the voltage balancer in series with the remaining two or more solid state light sources to the conductive path.
A rollable display device comprising: a flexible display panel comprises a base substrate, an image display part on the base substrate configured to display an image, and a polarization film on the image display part; a housing configured to contain the flexible display panel when the flexible display panel is rolled; a grip part configured to extend the flexible display panel from the housing upon application of an external force to expose the flexible display panel to an outside of the housing; and a connection part between the flexible display panel and the grip part connecting the flexible display panel and the grip part, wherein the connection part comprises a connection polarization film extending from the polarization film in a first direction, and the connection part excludes the image display part, wherein the connection part is connected to a side surface of the flexible display panel; wherein the flexible display panel is adapted to extend in the first direction, and has a thickness in a second direction; wherein a width of the connection part in a third direction is equal to a width of the flexible display panel in the third direction, the said third direction being perpendicular to each of the first and second directions (DR1, DR2); and wherein a width of the grip part in the third direction is larger than the width of the connection part. a flexible display panel comprises a base substrate, an image display part on the base substrate configured to display an image, and a polarization film on the image display part; a housing configured to contain the flexible display panel when the flexible display panel is rolled; a grip part configured to extend the flexible display panel from the housing upon application of an external force to expose the flexible display panel to an outside of the housing; and a connection part between the flexible display panel and the grip part connecting the flexible display panel and the grip part, wherein the connection part comprises a connection polarization film extending from the polarization film in a first direction, and the connection part excludes the image display part, wherein the connection part is connected to a side surface of the flexible display panel; wherein the flexible display panel is adapted to extend in the first direction, and has a thickness in a second direction; wherein a width of the connection part in a third direction is equal to a width of the flexible display panel in the third direction, the said third direction being perpendicular to each of the first and second directions (DR1, DR2); and wherein a width of the grip part in the third direction is larger than the width of the connection part.
A computer-implemented method for operating an Autonomous Driving Vehicle, ADV, to follow another ADV in a platoon manner, the method comprising: receiving, at a second ADV, a vehicle status and a first perception result from a first ADV over a Vehicle-to-Vehicle, V2V, link, the first perception result including one or more obstacles perceived by the first ADV; performing a perception process at the second ADV to perceive a driving environment associated with the second ADV, generating a second perception result; merging the first perception result and the second perception result performed by the second ADV to generate a third perception result; planning a second trajectory based on the vehicle status of the first ADV and the third perception result to cause the second ADV to follow the first ADV in a platoon manner; receiving a path planning result from the first ADV over the V2V link, the path planning result including a first trajectory planned by the first ADV to autonomously drive the first ADV; predicting movement of the first ADV based on the first trajectory provided by the path planning result of the first ADV and the third perception result; and generating a predicted trajectory based on the predicted movement of the first ADV, the predicted trajectory representing a trajectory of the first ADV predicted by the second ADV, wherein the second trajectory is planned in view of the predicted trajectory of the first ADV. receiving, at a second ADV, a vehicle status and a first perception result from a first ADV over a Vehicle-to-Vehicle, V2V, link, the first perception result including one or more obstacles perceived by the first ADV; performing a perception process at the second ADV to perceive a driving environment associated with the second ADV, generating a second perception result; merging the first perception result and the second perception result performed by the second ADV to generate a third perception result; planning a second trajectory based on the vehicle status of the first ADV and the third perception result to cause the second ADV to follow the first ADV in a platoon manner; receiving a path planning result from the first ADV over the V2V link, the path planning result including a first trajectory planned by the first ADV to autonomously drive the first ADV; predicting movement of the first ADV based on the first trajectory provided by the path planning result of the first ADV and the third perception result; and generating a predicted trajectory based on the predicted movement of the first ADV, the predicted trajectory representing a trajectory of the first ADV predicted by the second ADV, wherein the second trajectory is planned in view of the predicted trajectory of the first ADV.
Fastening system made up, on the one hand, of a round disc, in which a slot is formed, of a hanger bolt and of a nut and, on the other hand, of an installation opening in an article which is to be fastened and of a mount, which accommodates the disc and is arranged centrally in front of the installation opening, wherein the installation opening and the slot in the disc can be brought into engagement with the hanger bolt, which can be fastened in a wall, the disc with the slot can be arranged in a rotatable manner in the mount, with the hanger bolt being engaged in the process, and the nut can be screwed onto the hanger bolt, with the disc being clamped in the process, characterized in that the mount for the disc is formed, on the rear side, by a circumferential periphery of the installation opening and, on the front side, by at least three compliant spring arms extending from the circumferential periphery.
Monitoring device for a transmitting antenna system, comprising a power transport path with an inner conductor and an outer conductor, the device comprising - a measuring signal tapping line for galvanic connection to the inner conductor, and - an evaluation and control unit having an input connected to the measuring signal tapping line and an output, and - an interruption circuit for interrupting the transmission signal supply of the transmitting antenna system, - wherein the interruption circuit is adapted to be switched on and off through an output signal of the evaluation and control unit, and - wherein the evaluation and control unit compares a measuring value of a measuring signal in a predeterminable frequency range between 0 and 60 kHz, which signal is adapted to be supplied via the measuring signal tapping line, to a threshold value and, if the measuring value exceeds the threshold value in said frequency range, outputs at its output a switch-off signal for an at least temporary deactivation of the interruption circuit. - a measuring signal tapping line for galvanic connection to the inner conductor, and - an evaluation and control unit having an input connected to the measuring signal tapping line and an output, and - an interruption circuit for interrupting the transmission signal supply of the transmitting antenna system, - wherein the interruption circuit is adapted to be switched on and off through an output signal of the evaluation and control unit, and - wherein the evaluation and control unit compares a measuring value of a measuring signal in a predeterminable frequency range between 0 and 60 kHz, which signal is adapted to be supplied via the measuring signal tapping line, to a threshold value and, if the measuring value exceeds the threshold value in said frequency range, outputs at its output a switch-off signal for an at least temporary deactivation of the interruption circuit.
A centering device for centering a semifinished tire product and an interlayer of the semifinished tire product on a centering system, the centering device comprising: - a support intended to be secured to the centering system, - a first centering element that is fixed to the support in a rotatable manner and is configured to center the semifinished tire product, characterised in that the centering device comprises a second centering element that is fixed to the first centering element in a rotatable manner and is configured to center the interlayer of the semifinished tire product. - a support intended to be secured to the centering system, - a first centering element that is fixed to the support in a rotatable manner and is configured to center the semifinished tire product,
A display device equipped with a touch panel, comprising: a display panel; a capacitive touch panel provided on the display panel; and a front panel arranged above the capacitive touch panel with an air layer provided between the touch panel and the front panel, wherein: the capacitive touch panel includes a plurality of X electrodes and a plurality of Y electrodes, the X electrodes being sequentially applied with pulse signals, and the Y electrodes receiving signals; a reference value is obtained from the Y electrode in a case where the front panel is not touched, and when an arbitrary point on the front panel is touched, the same touched point on the capacitive touch panel is computed by using the received signals including both first signals obtained from the Y electrodes in a case where the front panel is not deformed and second signals obtained from the Y electrodes in a case where the front panel is deformed; wherein the first signals are measurement signals in the case that a measurement value is above a first threshold value set at a predetermined offset above the reference value; characterized in that the received signals used for computing the touched point include the second signal, wherein the second signal is a measurement signal in the case that a measurement value is below a second threshold value set at a predetermined offset below the reference value. a display panel; a capacitive touch panel provided on the display panel; and a front panel arranged above the capacitive touch panel with an air layer provided between the touch panel and the front panel, wherein: the capacitive touch panel includes a plurality of X electrodes and a plurality of Y electrodes, the X electrodes being sequentially applied with pulse signals, and the Y electrodes receiving signals; a reference value is obtained from the Y electrode in a case where the front panel is not touched, and when an arbitrary point on the front panel is touched, the same touched point on the capacitive touch panel is computed by using the received signals including both first signals obtained from the Y electrodes in a case where the front panel is not deformed and second signals obtained from the Y electrodes in a case where the front panel is deformed; wherein the first signals are measurement signals in the case that a measurement value is above a first threshold value set at a predetermined offset above the reference value;
An apparatus, comprising: a four-bar linkage mechanism including an upper link arranged parallel to a lower link and a first side link arranged parallel to a second side link, wherein the first and second side links (113, 114) are coupled between the upper and lower links (111, 112) at distal ends thereof to form a parallelogram structure; at least one gravity compensating spring coupled to the parallelogram structure, wherein the at least one gravity compensating spring is attached between two links of the four-bar linkage mechanism at two different spring attachment points (A, B) characterised in that the apparatus further comprises: a spring adjustment mechanism coupled to one end of the at least one gravity compensating spring and configured to adjust a position of at least one of the spring attachment points (A, B); and a spring adjustment actuator coupled to move the spring adjustment mechanism to alter the position of the at least one spring attachment point (A, B) and dynamically alter an amount of gravity compensating torque applied by the at least one gravity compensating spring when a payload handled by the apparatus changes. a four-bar linkage mechanism including an upper link arranged parallel to a lower link and a first side link arranged parallel to a second side link, wherein the first and second side links (113, 114) are coupled between the upper and lower links (111, 112) at distal ends thereof to form a parallelogram structure; at least one gravity compensating spring coupled to the parallelogram structure, wherein the at least one gravity compensating spring is attached between two links of the four-bar linkage mechanism at two different spring attachment points (A, B) characterised in that the apparatus further comprises: a spring adjustment mechanism coupled to one end of the at least one gravity compensating spring and configured to adjust a position of at least one of the spring attachment points (A, B); and a spring adjustment actuator coupled to move the spring adjustment mechanism to alter the position of the at least one spring attachment point (A, B) and dynamically alter an amount of gravity compensating torque applied by the at least one gravity compensating spring when a payload handled by the apparatus changes. a spring adjustment mechanism coupled to one end of the at least one gravity compensating spring and configured to adjust a position of at least one of the spring attachment points (A, B); and a spring adjustment actuator coupled to move the spring adjustment mechanism to alter the position of the at least one spring attachment point (A, B) and dynamically alter an amount of gravity compensating torque applied by the at least one gravity compensating spring when a payload handled by the apparatus changes.
A mechanism for locking an opening frame by pressing against a frame, comprising: - a mount intended to be secured to the frame; - a carriage intended to be secured to the opening frame, and movable relative to the mount along a translational movement between a first position corresponding to an open position of the opening frame, and a second position corresponding to a blocking position of the opening frame; - a hook movable relative to the mount and arranged to cooperate with a part of the opening frame in order to press it against the frame; - the hook is rotatably movable on the mount; - an actuator rotatably mounted on the mount and arranged to move the hook, - a return element interposed between the actuator and the carriage, characterized in that the hook has a first cam path and a second cam path with which the actuator cooperates, the first cam path extending the second cam path, and in that the return element is configured to tension when the carriage moves from its first position to its second position and to move the hook bearing on the carriage by cooperation of the actuator with the first cam path, then press the opening frame against the frame by cooperation of the actuator with the second cam path, in order to cause the pivoting of the hook which then cooperates with said part of the opening frame to press it against the frame. - a mount intended to be secured to the frame; - a carriage intended to be secured to the opening frame, and movable relative to the mount along a translational movement between a first position corresponding to an open position of the opening frame, and a second position corresponding to a blocking position of the opening frame; - a hook movable relative to the mount and arranged to cooperate with a part of the opening frame in order to press it against the frame; - the hook is rotatably movable on the mount; - an actuator rotatably mounted on the mount and arranged to move the hook, - a return element interposed between the actuator and the carriage, characterized in that the hook has a first cam path and a second cam path with which the actuator cooperates, the first cam path extending the second cam path, and in that the return element is configured to tension when the carriage moves from its first position to its second position and to move the hook bearing on the carriage by cooperation of the actuator with the first cam path, then press the opening frame against the frame by cooperation of the actuator with the second cam path, in order to cause the pivoting of the hook which then cooperates with said part of the opening frame to press it against the frame.