mhurhangee/ep-ind-claims huggingface dataset:
Electronic system comprising: a. a casing comprising a first bearing surface, b. a first busbar (506, 508) attached to the casing and comprising a first connection end having a first connection surface, c. an electronic unit comprising a second bearing surface, the electronic unit being intended to be inserted into the casing in an insertion direction and the electronic unit comprising: i. a support, ii. a second busbar (206, 208) attached to the support and comprising a second connection end having a second connection surface, the second bearing surface being intended to slide on the first bearing surface when the electronic unit is inserted into the casing, wherein one from among the first bearing surface and the second bearing surface comprises a ramp that is inclined relative to the insertion direction for deforming the second busbar (206, 208) so as to bring the second connection surface closer to the first connection surface when the electronic unit is inserted into the casing. a. a casing comprising a first bearing surface, b. a first busbar (506, 508) attached to the casing and comprising a first connection end having a first connection surface, c. an electronic unit comprising a second bearing surface, the electronic unit being intended to be inserted into the casing in an insertion direction and the electronic unit comprising: i. a support, ii. a second busbar (206, 208) attached to the support and comprising a second connection end having a second connection surface, i. a support, ii. a second busbar (206, 208) attached to the support and comprising a second connection end having a second connection surface, the second bearing surface being intended to slide on the first bearing surface when the electronic unit is inserted into the casing, wherein one from among the first bearing surface and the second bearing surface comprises a ramp that is inclined relative to the insertion direction for deforming the second busbar (206, 208) so as to bring the second connection surface closer to the first connection surface when the electronic unit is inserted into the casing.
Method for producing a preform of a valve body (16, 18) of a hollow valve, comprising the following steps: providing a workpiece (2, 4) and a forming punch; introducing a Ti-Fe or an iron oxide powder as protective coating between the workpiece (2, 4) and the forming punch; and compressive forming of the workpiece for creating said preform at 1050 °C to 1200 °C. providing a workpiece (2, 4) and a forming punch; introducing a Ti-Fe or an iron oxide powder as protective coating between the workpiece (2, 4) and the forming punch; and compressive forming of the workpiece for creating said preform at 1050 °C to 1200 °C.
A method for identifying an object at a storage structure, the method comprising: detecting a motion of the object at the storage structure using one or more sensors coupled with the storage structure; acquiring one or more images of at least a part of the object; determining a direction of the motion of the object; identifying the object based on the one or more images; and updating inventory records data for the storage structure based on the identified object and the determined direction; wherein the method further comprises: detecting a closing of a door of the storage structure by detecting that an angle of the door reaches a door angle threshold, wherein the door angle threshold is set to a first threshold; capturing one or more images of an interior of the storage structure using one or more cameras while the door is closing, wherein the one or more cameras are positioned on the door of the storage structure; updating the inventory records data based on the one or more images of the interior of the storage structure; analyzing the captured one or more images of the interior of the storage structure; and based on the analyzing, adjusting the door angle threshold from the first threshold to a second threshold. detecting a motion of the object at the storage structure using one or more sensors coupled with the storage structure; acquiring one or more images of at least a part of the object; determining a direction of the motion of the object; identifying the object based on the one or more images; and updating inventory records data for the storage structure based on the identified object and the determined direction; wherein the method further comprises: detecting a closing of a door of the storage structure by detecting that an angle of the door reaches a door angle threshold, wherein the door angle threshold is set to a first threshold; capturing one or more images of an interior of the storage structure using one or more cameras while the door is closing, wherein the one or more cameras are positioned on the door of the storage structure; updating the inventory records data based on the one or more images of the interior of the storage structure; analyzing the captured one or more images of the interior of the storage structure; and based on the analyzing, adjusting the door angle threshold from the first threshold to a second threshold. detecting a closing of a door of the storage structure by detecting that an angle of the door reaches a door angle threshold, wherein the door angle threshold is set to a first threshold; capturing one or more images of an interior of the storage structure using one or more cameras while the door is closing, wherein the one or more cameras are positioned on the door of the storage structure; updating the inventory records data based on the one or more images of the interior of the storage structure; analyzing the captured one or more images of the interior of the storage structure; and based on the analyzing, adjusting the door angle threshold from the first threshold to a second threshold.
A liquid cartridge comprising: a liquid chamber; a liquid outlet configured to supply the liquid from an interior of the chamber to an exterior of the liquid chamber; a body (63, 125) positioned in the chamber being movable between a first position wherein movement of the body is restricted, and a second position wherein the body is movable along a movement path between the first and second positions, the body having a plurality of sides; said liquid cartridge being characterised by a detector positioned in the chamber movable in response to movement of the body between the first and second positions; a restriction member configured to move between a release position in which the detector is movable to the released position, and a restrict position to position the detector in the restricted position, the restriction member being movable from the restrict position to the release position in response to movement of the actuator from the first to the second position; a plurality openings defined in the body and extending into the body through at least two sides of the body; a plurality of resist surfaces formed by the plurality of openings, the resist surfaces being configured to resist movement of the body between the first and second positions. a liquid chamber; a liquid outlet configured to supply the liquid from an interior of the chamber to an exterior of the liquid chamber; a body (63, 125) positioned in the chamber being movable between a first position wherein movement of the body is restricted, and a second position wherein the body is movable along a movement path between the first and second positions, the body having a plurality of sides; said liquid cartridge being characterised by a detector positioned in the chamber movable in response to movement of the body between the first and second positions; a restriction member configured to move between a release position in which the detector is movable to the released position, and a restrict position to position the detector in the restricted position, the restriction member being movable from the restrict position to the release position in response to movement of the actuator from the first to the second position; a plurality openings defined in the body and extending into the body through at least two sides of the body; a plurality of resist surfaces formed by the plurality of openings, the resist surfaces being configured to resist movement of the body between the first and second positions.
A circuit comprising: a first component of a first type, wherein the first component is configured to receive a bias signal and output a first analog output signal; a second component of the first type; and a processing circuit, wherein the processing circuit is configured to: receive the first analog output signal; determine that there is a performance change in the first component over a period of time based on the first analog output signal; in response to determining that there is performance change in the first component, determine a compensation factor, wherein the compensation factor is configured to compensate the analog output of the first component based on the performance change; and compensate a second analog output signal from the second circuit component based on the compensation factor. a first component of a first type, wherein the first component is configured to receive a bias signal and output a first analog output signal; a second component of the first type; and a processing circuit, wherein the processing circuit is configured to: receive the first analog output signal; determine that there is a performance change in the first component over a period of time based on the first analog output signal; in response to determining that there is performance change in the first component, determine a compensation factor, wherein the compensation factor is configured to compensate the analog output of the first component based on the performance change; and compensate a second analog output signal from the second circuit component based on the compensation factor. receive the first analog output signal; determine that there is a performance change in the first component over a period of time based on the first analog output signal; in response to determining that there is performance change in the first component, determine a compensation factor, wherein the compensation factor is configured to compensate the analog output of the first component based on the performance change; and compensate a second analog output signal from the second circuit component based on the compensation factor.
Method for more efficient data transmission in an optical telecommunication network in wavelength division multiplex, WDM, operation of different optical wavelengths, wherein the optical telecommunication network comprises a first superordinate network node, a second superordinate network node (R2') and further at least one first network element (R1-1), wherein the optical telecommunication network comprises an optical transmission path comprising a plurality of optical transmission channels, wherein in a normal operating mode of the optical telecommunication network, the first superordinate network node and the first network element (R1-1) are connected to one another by means of an optical transmission channel of the optical transmission path and a first IP interface of the first network element (R1-1), and/or the second superordinate network node (R2') and the first network element (R1-1) are connected to one another by means of an optical transmission channel of the optical transmission path and a second IP interface of the first network element (R1-1), wherein the optical telecommunication network further comprises a further superordinate network node (R2 BU), characterised in that the method comprises the step that, in a fault operating mode - instead of the first or second superordinate network node (R2, R2') - the further superordinate network node (R2 BU) and the first network element (R1-1) are connected to one another by means of the optical transmission path and either the first IP interface and/or the second IP interface of the first network element (R1-1), wherein at least either the first IP interface or the second IP interface is used both in the normal operating mode of the optical telecommunication network and in the fault operating mode.
Vortex flowmeter comprising: a conduit for process fluid flow in a downstream direction therethrough, said conduit having one or more inner wall portions defining a central bore; a shedder disposed within the central bore; first and second diaphragms (18, 19); a pressure sensor (22, 23) disposed remotely from said conduit, wherein the pressure sensor is a piezoelectric crystal; a first fill tube containing fill fluid, configured for communicably coupling said first diaphragm to said pressure sensor (22, 23); a second fill tube containing fill fluid, configured for communicably coupling said second diaphragm to said pressure sensor (23, 22); characterized in that the first and second diaphragms (18, 19) are embedded in opposite inner wall portions of said conduit, adjacent to the shedder; and that the vortex flowmeter further comprises a first diaphragm holder configured to maintain the first diaphragm in said embedded position on said conduit; and a second diaphragm holder configured to maintain the second diaphragm in said embedded position on said conduit, wherein the first diaphragm holder and the second diaphragm holder are in substantially tangential alignment with the opposite inner wall portions of said conduit, wherein the opposite inner wall portions of said conduit are flattened and each of the opposite inner wall portions of said conduit comprises a tightly-toleranced hole in which the first diaphragm holder with the first diaphragm and the second diaphragm holder with the second diaphragm are received. a conduit for process fluid flow in a downstream direction therethrough, said conduit having one or more inner wall portions defining a central bore; a shedder disposed within the central bore; first and second diaphragms (18, 19); a pressure sensor (22, 23) disposed remotely from said conduit, wherein the pressure sensor is a piezoelectric crystal; a first fill tube containing fill fluid, configured for communicably coupling said first diaphragm to said pressure sensor (22, 23); a second fill tube containing fill fluid, configured for communicably coupling said second diaphragm to said pressure sensor (23, 22); characterized in that the first and second diaphragms (18, 19) are embedded in opposite inner wall portions of said conduit, adjacent to the shedder; and that the vortex flowmeter further comprises a first diaphragm holder configured to maintain the first diaphragm in said embedded position on said conduit; and a second diaphragm holder configured to maintain the second diaphragm in said embedded position on said conduit, wherein the first diaphragm holder and the second diaphragm holder are in substantially tangential alignment with the opposite inner wall portions of said conduit, wherein the opposite inner wall portions of said conduit are flattened and each of the opposite inner wall portions of said conduit comprises a tightly-toleranced hole in which the first diaphragm holder with the first diaphragm and the second diaphragm holder with the second diaphragm are received.
A flexible nozzle for dispensing a fluid along a surface, the nozzle having an elongated body comprising an inlet for receiving a fluid and at least one channel for allowing the fluid to be extended along its body, said body being formed by first and second parts, the first part having a C-shaped cross-sectional configuration comprising two opposite internal sides, and the second part having an elongated configuration and being attached to both internal sides of the first part leaving a gap in-between for receiving the surface on which the fluid is to be dispensed, wherein both first and second parts (2, 3) are made of flexible materials such that at least a first direction of flexion (D1F) and a first direction of compression (D1C) are respectively defined, the first direction of flexion (D1F) being oblique to a longitudinal axis of the nozzle, and the first direction of compression (D1C) being along to a transversal axis of the nozzle, characterised in that the first part of the nozzle has an accordion-shaped configuration, comprising a plurality of spaced plates joined by a folding base, and in that said base comprises the at least one channel to let the fluid to pass towards the gap.
A method for producing a flat prepreg material blank in an at least partially automated production system, in which a fibrous material is impregnated with at least one matrix resin, characterized in that - the fibrous material is cutted in a blanking station to the geometry of a particular prepreg material blank to be produced; - the resultant fibrous blank is impregnated in an impregnation station; and - the resultant single prepreg layer is joined in an assembly station with at least one further single prepreg layer that was previously impregnated in the impregnation station, to form a multiple-layer prepreg material blank. - the fibrous material is cutted in a blanking station to the geometry of a particular prepreg material blank to be produced; - the resultant fibrous blank is impregnated in an impregnation station; and - the resultant single prepreg layer is joined in an assembly station with at least one further single prepreg layer that was previously impregnated in the impregnation station, to form a multiple-layer prepreg material blank.
An image processing method for a multi-view rendering method capable of providing spatial-temporal consistency, comprising: determining a standard viewpoint as a center between viewpoints of two input views that are selected from among at least two input views; generating a standard viewpoint view with respect to the determined standard viewpoint, wherein the standard viewpoint view corresponds to a current frame in a predetermined time t or a t th frame, using the at least two input views corresponding to said current frame, each input view comprising an image and disparity information; generating an initial standard viewpoint layer of the current frame by replacing a region within the standard viewpoint view of the current frame with a hole, wherein the region within the standard viewpoint view corresponds to a region that appears as a hole by warping the standard viewpoint view to at least one other viewpoint; generating a standard viewpoint layer of the current frame by recovering the hole within the initial standard viewpoint layer, based on a standard viewpoint layer of at least one previous frame of the current frame and the initial standard viewpoint layer; generating an output view, corresponding to said at least one other viewpoint, wherein the output view includes an interpolated view that is generated by interpolating at least two input views among said at least two input views or an extrapolated view that is generated by extrapolating at least one input view among said at least two input views; and recovering a hole within the output view using the standard viewpoint layer of the current frame. determining a standard viewpoint as a center between viewpoints of two input views that are selected from among at least two input views; generating a standard viewpoint view with respect to the determined standard viewpoint, wherein the standard viewpoint view corresponds to a current frame in a predetermined time t or a t th frame, using the at least two input views corresponding to said current frame, each input view comprising an image and disparity information; generating an initial standard viewpoint layer of the current frame by replacing a region within the standard viewpoint view of the current frame with a hole, wherein the region within the standard viewpoint view corresponds to a region that appears as a hole by warping the standard viewpoint view to at least one other viewpoint; generating a standard viewpoint layer of the current frame by recovering the hole within the initial standard viewpoint layer, based on a standard viewpoint layer of at least one previous frame of the current frame and the initial standard viewpoint layer; generating an output view, corresponding to said at least one other viewpoint, wherein the output view includes an interpolated view that is generated by interpolating at least two input views among said at least two input views or an extrapolated view that is generated by extrapolating at least one input view among said at least two input views; and recovering a hole within the output view using the standard viewpoint layer of the current frame.
A distance measuring laser scanner comprising a light transmitter for transmitting a light signal into a monitored zone, a light receiver for generating a received signal from the light signal remitted by objects in the monitored zone, a movable deflection unit for the periodic deflection of the light signal (16, 22) to scan the monitored zone in the course of the movement, and an evaluation unit for detecting the objects and for determining their distance based on the time of flight of light between the transmission and the reception of the light signal (16, 22) with reference to the received signal, and for testing a test light path based on a test light signal (40, 54a-b), the test ensuring an error-free function of the distance measurement, wherein the laser scanner comprises a test light transmitter for generating the test light signal (40, 54a-b), wherein the test light transmitter is orientated such that the test light signal moves within the laser scanner to the light receiver, so that the test signal stays internal, characterized in that the evaluation unit is configured also to detect objects in angular positions of the deflection unit in which the test light path is tested.