mhurhangee/ep-ind-claims huggingface dataset:
A lens driving device comprising: a cover member comprising an upper plate and a lateral plate extending from the upper plate; a bobbin disposed in the cover member; a housing disposed between the cover member and the bobbin; a base disposed below the housing and coupled to the lateral plate of the cover member; a coil disposed on the bobbin; a magnet disposed on the housing and facing the coil; a lower elastic member comprising an outer part disposed between the housing and the base, an inner part coupled to the bobbin and a connection part connecting the outer part and the inner part; and a plurality of dampers coated on the lower elastic member, characterized in that the connection part comprises a first area and a second area spaced apart from the first area, wherein a further damper connects the first area and the second area, and wherein the further damper is spaced apart from the outer part and the inner part. a cover member comprising an upper plate and a lateral plate extending from the upper plate; a bobbin disposed in the cover member; a housing disposed between the cover member and the bobbin; a base disposed below the housing and coupled to the lateral plate of the cover member; a coil disposed on the bobbin; a magnet disposed on the housing and facing the coil; a lower elastic member comprising an outer part disposed between the housing and the base, an inner part coupled to the bobbin and a connection part connecting the outer part and the inner part; and a plurality of dampers coated on the lower elastic member, characterized in that the connection part comprises a first area and a second area spaced apart from the first area, wherein a further damper connects the first area and the second area, and wherein the further damper is spaced apart from the outer part and the inner part.
A method for controlling an exhaust gas aftertreatment system, the exhaust gas aftertreatment system comprising - a reductant dosing device; - a selective catalytic reduction, SCR, device arranged downstream of the reductant dosing device; - an ammonia slip catalyst arranged downstream of the SCR device; - a feedback NOx sensor arranged downstream of the SCR device and upstream of the ammonia slip catalyst; and - a tailpipe NOx sensor arranged downstream of the ammonia slip catalyst; wherein the method is performed by a control device and comprises the steps - providing an initial dosing of reductant from the reductant dosing device (s503, s603); - obtaining a feedback signal from the feedback NOx sensor and a tailpipe NOx signal from the tailpipe NOx sensor (s505, s605); and - adjusting the dosing of reductant until the feedback signal exceeds the tailpipe NOx signal by a value within a predetermined positive interval (s511, s513, s611, s613). - a reductant dosing device; - a selective catalytic reduction, SCR, device arranged downstream of the reductant dosing device; - an ammonia slip catalyst arranged downstream of the SCR device; - a feedback NOx sensor arranged downstream of the SCR device and upstream of the ammonia slip catalyst; and - a tailpipe NOx sensor arranged downstream of the ammonia slip catalyst; - providing an initial dosing of reductant from the reductant dosing device (s503, s603); - obtaining a feedback signal from the feedback NOx sensor and a tailpipe NOx signal from the tailpipe NOx sensor (s505, s605); and - adjusting the dosing of reductant until the feedback signal exceeds the tailpipe NOx signal by a value within a predetermined positive interval (s511, s513, s611, s613).
A communication node arrangement (1, 1') comprising at least two antenna units (2, 3, 4, 5; 6, 7), where each antenna unit (2, 3, 4, 5; 6, 7) comprises at least one signal port (8, 9, 10, 11; 12, 13) and at least one antenna element (14, 15, 16, 17; 18, 19, 20; 21, 22, 23, 24; 25, 26, 27, 28), each signal port being at least indirectly connected to at least one corresponding antenna element (14, 15, 16, 17; 18, 19, 20; 21, 22, 23, 24; 25, 26, 27, 28), wherein each antenna unit (2, 3, 4, 5; 6, 7) comprises at least one sensor unit (29, 30, 31, 32; 33, 34) arranged to sense its orientation relative a predetermined reference extension (35, 36), where the communication node arrangement (1, 1') comprises at least one control unit (63, 74) and is arranged to feed a respective test signal into each of at least two different signal ports (8, 9, 10, 11; 12, 13), and for each such test signal, the communication node arrangement (1, 1') is arranged to receive the test signal via at least one other signal port, the test signal then having been radiated from at least one antenna element to at least one other antenna element, and in this manner transferred from one signal port to another, the communication node arrangement (1, 1') being arranged to determine relative positions of said antenna units (2, 3, 4, 5; 6, 7) based on the received test signals, and to determine relative orientations of said antenna units (2, 3, 4, 5; 6, 7) based on data received from the sensor units (29, 30, 31, 32; 33, 34).
A system for use in inspection of patterned structures as semiconductor wafers, the system comprising: data input utility for receiving first type of data indicative of image data on at least a part of the patterned structure; data processing and analyzing utility configured and operable for analyzing the image data to identify at least one unit cell comprising at least one feature of a pattern in said structure using certain design rule data, and determining a geometrical model for said at least one feature, and using said geometrical model for determining an optical model for second type of data indicative of optical measurements on a patterned structure obtained by scatterometry or optical critical dimension technique; and a memory utility, for storing said certain design rule data indicative of at least one feature of a pattern in said structure. data input utility for receiving first type of data indicative of image data on at least a part of the patterned structure; data processing and analyzing utility configured and operable for analyzing the image data to identify at least one unit cell comprising at least one feature of a pattern in said structure using certain design rule data, and determining a geometrical model for said at least one feature, and using said geometrical model for determining an optical model for second type of data indicative of optical measurements on a patterned structure obtained by scatterometry or optical critical dimension technique; and a memory utility, for storing said certain design rule data indicative of at least one feature of a pattern in said structure.
Catching cylinder for mounting between two elements of a load lifting device, in particular scissor lift table, which can be displaced relative to one another, comprising a housing, which can be coupled to one of the elements, as well as a piston rod which can be coupled to the other element and is connected to a piston which is guided in linear movement inside the housing to form a first fluid chamber and a second fluid chamber, wherein a shutoff valve which is arranged in a connection between the two fluid chambers (23, 24) is designed to shut off the fluid volume stream, resulting from a passive displacement of the piston, between the fluid chambers (23, 24) when a response value is exceeded, characterised by a fluid reservoir wherein the housing has a first end section and a second end section, opposite the first end section, in which the fluid reservoir is formed.
Arrangement comprising a vibration power generator and at least one power supply load (10, 10', 11), wherein the vibration power generator comprises: a first substrate and a second substrate configured to be moved relative to each other by external vibration while remaining opposite each other; a group of a plurality of electrets arranged in the relative movement direction on one surface side of the first substrate; and a group of electrodes arranged in the relative movement direction on a surface side of the second substrate opposite to the group of electrets, and including a first current collecting electrode and a second current collecting electrode, wherein the at least one power supply load (10, 10', 11) comprises either a single power supply load electrically connected to each of the first and second current collecting electrodes (6, 7) or a first power supply load connected to the first current collecting electrode and a second power supply load connected to the second current collecting electrode, and the arrangement is configured such that power generated by the external vibration is supplied to the single power supply load or to each of the first and second power supply loads (10,11), characterized in that the single power supply load or each of the first and second power supply loads (10, 11) has an impedance lower than an internal impedance of the vibration power generator. a first substrate and a second substrate configured to be moved relative to each other by external vibration while remaining opposite each other; a group of a plurality of electrets arranged in the relative movement direction on one surface side of the first substrate; and a group of electrodes arranged in the relative movement direction on a surface side of the second substrate opposite to the group of electrets, and including a first current collecting electrode and a second current collecting electrode, wherein the at least one power supply load (10, 10', 11) comprises either a single power supply load electrically connected to each of the first and second current collecting electrodes (6, 7) or a first power supply load connected to the first current collecting electrode and a second power supply load connected to the second current collecting electrode, and a single power supply load electrically connected to each of the first and second current collecting electrodes (6, 7) or a first power supply load connected to the first current collecting electrode and a second power supply load connected to the second current collecting electrode, and the arrangement is configured such that power generated by the external vibration is supplied to the single power supply load or to each of the first and second power supply loads (10,11), characterized in that the single power supply load or each of the first and second power supply loads (10, 11) has an impedance lower than an internal impedance of the vibration power generator.
Method of operating a fluid working machine, comprising at least one working chamber of cyclically changing volume, a high-pressure fluid connection, a low-pressure fluid connection and at least one electrically actuated valve connecting said working chamber to said high-pressure fluid connection and/or said low-pressure fluid connection, wherein the actuation of at least one of said electrically actuated valves is chosen depending on the fluid flow demand, characterised in that the actuation pattern of said electrically actuated valve is chosen from a stored set of pre-calculated actuation patterns.
A method of thermal fogging, comprising: dispensing a predetermined amount of an agricultural formulation through the outlet (104; 304) of cartridge (102; 302) using a piston operatively coupled to the cartridge (102; 302), wherein the agricultural formulation has a viscosity of greater than about 0.5 Pa·s (500 cP) at room temperature, propelling forward the agricultural formulation by a positive displacement pump, wherein the agricultural formulation is partially fluidized by shear forces generated by pushing the viscous agricultural formulation through the outlet (104; 304) and/or the pump; using an inline heater to heat the predetermined amount of partially fluidized agricultural formulation to a predetermined temperature, wherein the agricultural formulation has a viscosity of less than about 0.4 Pa·s (400 cP) at or above 60°C (140 degrees Fahrenheit); and aerosolizing the agricultural formulation with a thermal fogging apparatus. dispensing a predetermined amount of an agricultural formulation through the outlet (104; 304) of cartridge (102; 302) using a piston operatively coupled to the cartridge (102; 302), wherein the agricultural formulation has a viscosity of greater than about 0.5 Pa·s (500 cP) at room temperature, propelling forward the agricultural formulation by a positive displacement pump, wherein the agricultural formulation is partially fluidized by shear forces generated by pushing the viscous agricultural formulation through the outlet (104; 304) and/or the pump; using an inline heater to heat the predetermined amount of partially fluidized agricultural formulation to a predetermined temperature, wherein the agricultural formulation has a viscosity of less than about 0.4 Pa·s (400 cP) at or above 60°C (140 degrees Fahrenheit); and aerosolizing the agricultural formulation with a thermal fogging apparatus.
A method comprising: moving a mobile robot in a path within a predetermined area using a drive system of the mobile robot; and outputting ultraviolet light from a first light source onto a portion of at least one of a plurality of wheels of the drive system based on a first dosage level, characterized by outputting the UV light from the first light source onto at least a portion of a surface which the mobile robot is positioned on or moving over. moving a mobile robot in a path within a predetermined area using a drive system of the mobile robot; and outputting ultraviolet light from a first light source onto a portion of at least one of a plurality of wheels of the drive system based on a first dosage level, characterized by outputting the UV light from the first light source onto at least a portion of a surface which the mobile robot is positioned on or moving over.
System of manufacturing (1, 21, 41, 61) an external piece (3, 23, 43, 63, 83, 103) for a timepiece comprising a securing device (5, 25, 45, 65) including a drum (11, 31, 51, 71), rotatably mounted along a first axis (A 1, A 3), and carrying at least one blank (3', 23') of said piece, a machining device (7, 27, 47, 67) comprising abrasive means (13, 33, 53, 73) rotatably mounted along a second axis (A 2, A 4) and intended to machine said at least one blank in order to form a first curvature (C 1, C 3), the machining device (7, 27, 47, 67) further including a means (15, 35, 55, 75) of moving said second axis (A 2, A 4) so that the device is movably mounted along a curved directrix to selectively form a second curvature (C 2, C 4) in said at least one blank and characterised in that said first axis (A 1, A 3) and said second axis (A 2, A 4) are perpendicular so that the machining lines intersect.
Rotation damper which has a damper housing, which encloses an electromagnetic damper motors disposed along a central axis of the rotation damper, with a stator fixed to the housing and a rotor rotatably mounted therein as well as means for generating a magnetic field at the rotor and the stator, and which is to be fixed via a fastening part non-rotatably connected with the damper housing to a first mass, and an articulation lever which is connected with the second mass, a bearing shaft connected with the articulation lever for mounting the articulation lever in the rotation damper, and a gear for transmitting and/or converting a relative turning movement between the fastening part to the first mass and the articulation lever to the second mass onto the damper motor for shock absorption, characterised in that the fastening part with the damper housing is rotatably mounted at the bearing shaft, wherein the fastening part is mounted to the bearing shaft via a roller bearing between the bearing shaft and the fastening part, and a roller bearing between the damper housing and the rotor and a further roller bearing between the rotor and the bearing shaft is rotatably mounted thereupon.
A biopsy device comprising: an outer needle hub; an outer needle (20") coupled at a proximal end to the outer needle hub, the outer needle including: an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; an inner surface defining a lumen (21") through said outer needle (20") for receiving tissue therein, said inner surface including a countersink formed at said tip; a tab extending inwardly from said inner surface toward said tip and adjacent said countersink, said tab projecting inward sufficient to be contacted by said inner needle coaxially disposed within said outer needle (20") and said tab being resiliently deflectable outwardly when contacted by said inner needle; an inner needle hub; and an inner needle coupled at a proximal end to said inner needle hub, the inner needle including an inner needle tip at an opposite distal end, said inner needle coaxially disposed within said outer needle (20"). an outer needle hub; an outer needle (20") coupled at a proximal end to the outer needle hub, the outer needle including: an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; an inner surface defining a lumen (21") through said outer needle (20") for receiving tissue therein, said inner surface including a countersink formed at said tip; a tab extending inwardly from said inner surface toward said tip and adjacent said countersink, said tab projecting inward sufficient to be contacted by said inner needle coaxially disposed within said outer needle (20") and said tab being resiliently deflectable outwardly when contacted by said inner needle; an inner needle hub; and an inner needle coupled at a proximal end to said inner needle hub, the inner needle including an inner needle tip at an opposite distal end, said inner needle coaxially disposed within said outer needle (20"). an outer needle tip at an opposite distal end; a tissue slicing feature defined at said tip configured for cutting tissue; an inner surface defining a lumen (21") through said outer needle (20") for receiving tissue therein, said inner surface including a countersink formed at said tip; a tab extending inwardly from said inner surface toward said tip and adjacent said countersink, said tab projecting inward sufficient to be contacted by said inner needle coaxially disposed within said outer needle (20") and said tab being resiliently deflectable outwardly when contacted by said inner needle; an inner needle hub; and an inner needle coupled at a proximal end to said inner needle hub, the inner needle including an inner needle tip at an opposite distal end, said inner needle coaxially disposed within said outer needle (20").
A dryer comprising a body; a drum in which the laundry to be dried is loaded; an air circulation duct for circulating the drying air which dries the laundry in the drum; at least one filter which is configured to retain the particles in the drying air such as fibers, lint, etc.; a water line which is configured to deliver water to the filter; a nozzle which is arranged on the filter and which is connected to the water line, and a sieve which is attached under the filter and wherein the sieve is configured to collect the fibers drained from the filter; characterized by a squeezing mechanism which is provided in the air circulation duct and which is configured to compress the sieve so as to drain the water thereon.
A net structure, in particular for geotechnical applications, comprising: a plurality of continuous ribs arranged substantially parallel along a first development axis; a plurality of first continuous filaments arranged substantially parallel to one another and transversally of the plurality of ribs, the first filaments being constrained to the ribs at nodes lying in a first lie plane; a plurality of second continuous filaments arranged substantially parallel to one another and transversally of the plurality of ribs, the second continuous filaments being constrained to the ribs at nodes lying in a second lie plane, the second lie plane being opposite the first lie plane with respect to the ribs, the plurality of first and second filaments (4, 7) defining an internal volume of the net structure comprised between the first and the second lie plane (6, 8), the internal volume being sub-divided by the plurality of ribs into a predetermined number of channels that are substantially parallel, at least the first filaments and/or the second filaments being defined by laminar structures exhibiting respective flat surfaces (4a; 7a) that substantially lie in the respective lie plane (6, 8); characterized by the fact that the net structure further comprises at least a substantially flat first filter element located at one of the lie planes (6, 8) substantially in an external position to the internal volume of the net structure, the first filter element being unremovably constrained to the nodes and/or to the first and/or second filaments (4, 7). a plurality of continuous ribs arranged substantially parallel along a first development axis; a plurality of first continuous filaments arranged substantially parallel to one another and transversally of the plurality of ribs, the first filaments being constrained to the ribs at nodes lying in a first lie plane; a plurality of second continuous filaments arranged substantially parallel to one another and transversally of the plurality of ribs, the second continuous filaments being constrained to the ribs at nodes lying in a second lie plane, the second lie plane being opposite the first lie plane with respect to the ribs, the plurality of first and second filaments (4, 7) defining an internal volume of the net structure comprised between the first and the second lie plane (6, 8), the internal volume being sub-divided by the plurality of ribs into a predetermined number of channels that are substantially parallel, at least the first filaments and/or the second filaments being defined by laminar structures exhibiting respective flat surfaces (4a; 7a) that substantially lie in the respective lie plane (6, 8); characterized by the fact that the net structure further comprises at least a substantially flat first filter element located at one of the lie planes (6, 8) substantially in an external position to the internal volume of the net structure, the first filter element being unremovably constrained to the nodes and/or to the first and/or second filaments (4, 7).