mhurhangee/ep-ind-claims huggingface dataset:
A method of digital data signal processing, comprising: correlating first and second input binary signals to determine whether there is a first component common to the first and second input binary signals due to the matching of their binary values, the first component being either a number of the most significant bits, MSB, or a number of the least significant bits, LSB, of the first and second input binary signals; determining as a second component the remainder of the first input binary signal and determining as a second component the remainder of the second input binary signal, wherein the respective second components may have different binary values from one another; extracting the first component from at least one of the first and second input binary signals, the second component from the first input binary signal, and the second component from the second input binary signal; performing an interpolation operation on the extracted second components, by enabling circuit elements of a plurality of circuit elements configured to perform the interpolation operation that operate upon the extracted second components; and disabling circuit elements of the plurality of circuit elements configured to perform the interpolation operation that operate upon the first components of the first and second input binary signals; and combining by concatenation the first component with a result of the interpolation operation. correlating first and second input binary signals to determine whether there is a first component common to the first and second input binary signals due to the matching of their binary values, the first component being either a number of the most significant bits, MSB, or a number of the least significant bits, LSB, of the first and second input binary signals; determining as a second component the remainder of the first input binary signal and determining as a second component the remainder of the second input binary signal, wherein the respective second components may have different binary values from one another; extracting the first component from at least one of the first and second input binary signals, the second component from the first input binary signal, and the second component from the second input binary signal; performing an interpolation operation on the extracted second components, by enabling circuit elements of a plurality of circuit elements configured to perform the interpolation operation that operate upon the extracted second components; and disabling circuit elements of the plurality of circuit elements configured to perform the interpolation operation that operate upon the first components of the first and second input binary signals; and combining by concatenation the first component with a result of the interpolation operation.
An arrangement for processing incoming incoherent electromagnetic radiation, said incoming incoherent electromagnetic radiation comprising radiation in a first wavelength interval, the arrangement comprising: - a focusing arrangement for focusing the incoming incoherent electromagnetic radiation, - a first cavity configured to comprise an intra cavity laser beam, and - a nonlinear crystal arranged in the first cavity such that it is capable of receiving the focused incoherent electromagnetic radiation and, in dependence on the spatial overlap between the focused incoherent electromagnetic radiation and the intra-cavity laser beam, by interaction with the intra-cavity laser beam provide processed electromagnetic radiation, said processed electromagnetic radiation comprising radiation in a second wavelength interval, wherein the nonlinear crystal is configured to be quasi phase matched for conversion of the incoming incoherent electromagnetic radiation in the first wavelength interval to the processed electromagnetic radiation in the second wavelength interval. - a focusing arrangement for focusing the incoming incoherent electromagnetic radiation, - a first cavity configured to comprise an intra cavity laser beam, and - a nonlinear crystal arranged in the first cavity such that it is capable of receiving the focused incoherent electromagnetic radiation and, in dependence on the spatial overlap between the focused incoherent electromagnetic radiation and the intra-cavity laser beam, by interaction with the intra-cavity laser beam provide processed electromagnetic radiation, said processed electromagnetic radiation comprising radiation in a second wavelength interval,
A filtering apparatus comprising a plurality of filter elements which can be accommodated in a filter housing with a filter inlet for fluid to be filtered and a filter outlet for the filtered fluid, at least one of the filter elements being able to be backwashed by means of a backwashing device (45, 49) for cleaning its effective filter surface during the filtration operation, which backwashing device comprises a pressure control device for supporting the backwashing, the pressure control device comprising a hydraulic accumulator, a first fluid chamber of which can be filled with a quantity of cleaned fluid during the filtration operation and can be connected to a clean side of the one filter element to be cleaned for a backwashing operation, gas pressure being able to be applied to a second fluid chamber of the hydraulic accumulator for a backwashing operation in order to eject the filling quantity of the cleaned fluid for the backwashing process again at least partially from the first fluid chamber by means of a movement of a separating element of the hydraulic accumulator brought about in this way, characterised in that the filter elements may each be accommodated in their own element chamber, and the element chambers are arranged in the filter housing on a circular line concentrically surrounding the cylinder axis, the fluid chamber being able to be connected to a clean side of the one filter element to be cleaned during the filtration operation by means of a backwashing guide, that the hydraulic accumulator and the backwashing guide are arranged rotatably, connected to one another, in the filter housing, and can be rotated for adjustment movements between filtration operation and backwashing by means of a rotational drive, and that an overflow space attached to the clean-side chamber connections of the element chambers is provided which is connected to an output space and the filter outlet, and from which the first fluid chamber of the hydraulic accumulator can be filled with cleaned fluid via a filling hole located in the wall of the backwashing guide.
A multi-blade multi-shaft stirrer for fruits and vegetables comprises a motor, at least three stirring blade groups and at least three stirring blade group driving shafts, wherein each stirring blade group is connected to a driving shaft, the motor is connected to a driving wheel, each driving shaft is disposed with a driven wheel, and the driven wheel, driven by the driving wheel which is driven by the motor, drives each stirring blade to rotate, wherein a separation-reunion structure is disposed between the motor and the driving wheel; wherein the separation-reunion structure comprises a connector above the motor and a clutch on the connector, wherein the connector comprises a base plate which is disposed with a round space equally divided into six parts, an axle hole is disposed in the middle of the base plate and the equally divided round space; the clutch comprises a circular terminal disc the circle of which is uniformly disposed with six triangles stretching downwards perpendicularly and matching with the six equally divided parts of the round space.
An electric wire joining structure, comprising: - one or more electric wires; - a terminal including one or more insertion holes for the respective one or more electric wires, the one or more electric wires being inserted into the respective insertion holes; and - a joining part formed by thermal spraying, the joining part joining the one or more electric wires to the terminal on a side on which the one or more electric wires have passed through the respective one or more insertion holes, - the terminal having a tapered part on the side of the terminal on which side the one or more electric wires have passed through the respective one or more insertion holes; - the tapered part having the one or more insertion holes; and - the joining part joining the one or more electric wires to the terminal in the tapered part, the tapered part being a V-shaped structure. - one or more electric wires; - a terminal including one or more insertion holes for the respective one or more electric wires, the one or more electric wires being inserted into the respective insertion holes; and - a joining part formed by thermal spraying, the joining part joining the one or more electric wires to the terminal on a side on which the one or more electric wires have passed through the respective one or more insertion holes, - the terminal having a tapered part on the side of the terminal on which side the one or more electric wires have passed through the respective one or more insertion holes; - the tapered part having the one or more insertion holes; and - the joining part joining the one or more electric wires to the terminal in the tapered part, the tapered part being a V-shaped structure.
Machine for "cartellate" production comprising a support structure, a motorized conveyor belt for transport of dough strips, on which dough guide means operate, conveyor means, motorized pinching means, shaping means, cutting means and movable rolling means, characterized in that - said pinching means are configured to operate, by rotating around its central axis, the clamping of the dough strips; - said pinching means cooperate with said conveyor means and with said shaping means to achieve the dough strips forming; - said cutting means are steadily fixed to one of said pinching means. - said pinching means are configured to operate, by rotating around its central axis, the clamping of the dough strips; - said pinching means cooperate with said conveyor means and with said shaping means to achieve the dough strips forming; - said cutting means are steadily fixed to one of said pinching means.
A flare-type tension leg floating wind turbine foundation, comprising: a top support platform (9, 14) configured to support a tower frame, a blade and a wind turbine generator set; a bottom support structure (7, 16) connected to a plurality of tension legs; at least three hollow upright columns (6, 15) connected between the top support platform (9, 14) and the bottom support structure (7, 16) and arranged around a vertical center line of the floating wind turbine foundation (4, 12), characterized in that each of the at least three upright columns (6, 15) being inclined outward from a lower end to an upper end with respect to the vertical center line of the floating wind turbine foundation (4, 12); and in that it comprises a ballast adjusting system provided in the upright columns (6, 15) and/or the bottom support structure (7, 16). a top support platform (9, 14) configured to support a tower frame, a blade and a wind turbine generator set; a bottom support structure (7, 16) connected to a plurality of tension legs; at least three hollow upright columns (6, 15) connected between the top support platform (9, 14) and the bottom support structure (7, 16) and arranged around a vertical center line of the floating wind turbine foundation (4, 12), characterized in that each of the at least three upright columns (6, 15) being inclined outward from a lower end to an upper end with respect to the vertical center line of the floating wind turbine foundation (4, 12); and in that it comprises a ballast adjusting system provided in the upright columns (6, 15) and/or the bottom support structure (7, 16).
Thermoforming device comprising a lower mould, an upper mould, one or more knock-out pins, a gaseous medium damper, and an ejector plate, said lower mould comprising a plurality of forming sleeves and a plurality of forming bases, wherein walls of each forming sleeve define a respective mould cavity and wherein a respective forming base is incorporated in each forming sleeve to form a base of a product, wherein the one or more knock-out pins are mounted on the ejector plate, which knock-out pins are connected to the forming bases; wherein the thermoforming device is configured to form said product from a plastic foil by moving the lower mould and the upper mould toward each other and is configured to knock the product out of the lower mould by moving the lower mould and the ejector plate toward each other, wherein the gaseous medium damper is mounted in the ejector plate or the lower mould; wherein the gaseous medium damper comprises: a housing; a piston rod movable in the housing, and configured for engaging the lower mould or the ejector plate, respectively; a piston mounted on an end of the piston rod; a seal between the piston and the housing for the purpose of sealing a compression chamber formed between the piston and the housing on a side of the piston remote from the piston rod; and an opening in the compression chamber for exchanging gaseous medium with a reservoir with gaseous medium under pressure; characterized in that the gaseous medium damper is configured for damping the movement toward each other of the ejector plate and the lower mould and in that the gaseous medium damper is in communication with said reservoir for the purpose of exporting gaseous medium to the reservoir during an inward movement of the damper and for the purpose of receiving gaseous medium from the reservoir during an outgoing movement of the damper. a housing; a piston rod movable in the housing, and configured for engaging the lower mould or the ejector plate, respectively; a piston mounted on an end of the piston rod; a seal between the piston and the housing for the purpose of sealing a compression chamber formed between the piston and the housing on a side of the piston remote from the piston rod; and an opening in the compression chamber for exchanging gaseous medium with a reservoir with gaseous medium under pressure;
Door frame of an elevator system comprising an elevator shaft, wherein the door frame forms a chamber for accommodating a control unit, the door frame comprising: - a first door frame element (28.0) which delimits the chamber and has a side closure extending in a straight line, and - a second door frame element (28.1) which delimits the chamber and has a side closure parallel to the side closure of the first door frame element (28.0), and wherein the first door frame element (28.0) can be fixed to the second door frame element (28.1) by means of a fastening element which extends along the side closures (54, 56) and the fastening element is arranged on the first and on the second door frame element (28.0, 28.1) so as to be movable along the side closures (54, 56), and the fastening element has a tool element (34, 45) for moving the fastening element from a locked position into a release position, wherein the first door frame element (28.0) is fixed in the locked position on the second door frame element (28.1) and can be removed from the second door frame element (28.1) in the release position. - a first door frame element (28.0) which delimits the chamber and has a side closure extending in a straight line, and - a second door frame element (28.1) which delimits the chamber and has a side closure parallel to the side closure of the first door frame element (28.0), and wherein the first door frame element (28.0) can be fixed to the second door frame element (28.1) by means of a fastening element which extends along the side closures (54, 56) and the fastening element is arranged on the first and on the second door frame element (28.0, 28.1) so as to be movable along the side closures (54, 56), and the fastening element has a tool element (34, 45) for moving the fastening element from a locked position into a release position, wherein the first door frame element (28.0) is fixed in the locked position on the second door frame element (28.1) and can be removed from the second door frame element (28.1) in the release position.
A frame body for a cell frame of a redox flow battery, the frame body comprising: a through window, liquid supply and drainage manifolds (33, 34, 35, 36), a sealing groove which surrounds the outer periphery of the liquid supply and drainage manifolds (33, 34, 35, 36), and an outer peripheral portion, the outer peripheral portion including a thin region whose thickness gradually decreases in a direction from a center of the frame body toward an outer periphery of the frame body. a through window, liquid supply and drainage manifolds (33, 34, 35, 36), a sealing groove which surrounds the outer periphery of the liquid supply and drainage manifolds (33, 34, 35, 36), and an outer peripheral portion, the outer peripheral portion including a thin region whose thickness gradually decreases in a direction from a center of the frame body toward an outer periphery of the frame body.
A microparticle, comprising an agglomerate of hydrophilic active substance containing particles, which particle comprises an amphiphilic polymer composed of a hydrophobic segment of poly(hydroxy acid) and a hydrophilic segment of polysaccharide or polyethylene glycol, and a hydrophilic active substance, and wherein the number of agglomeration of said particles is in a range from 10 to seventh power of 10.
A method of detecting a spatial orientation of a transducer by a handheld optical scanning device, the method comprising steps of: a) providing a first spatial orientation feature on at least a first outer housing surface of the transducer, b) arranging a handheld optical scanning device in a sightline of the first spatial orientation feature at a selected spatial orientation relative to the first outer surface of the transducer housing, and c) identifying the first spatial orientation feature by the handheld optical scanning device, wherein the first spatial orientation feature indicates a first axis of sensitivity of the transducer to a physical quantity such as acceleration, sound pressure, force, or strain measured by the transducer, characterized in that the method comprises steps of: d) detecting, by an orientation sensor of the optical handheld scanning device, a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature, and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device. a) providing a first spatial orientation feature on at least a first outer housing surface of the transducer, b) arranging a handheld optical scanning device in a sightline of the first spatial orientation feature at a selected spatial orientation relative to the first outer surface of the transducer housing, and c) identifying the first spatial orientation feature by the handheld optical scanning device, wherein the first spatial orientation feature indicates a first axis of sensitivity of the transducer to a physical quantity such as acceleration, sound pressure, force, or strain measured by the transducer, characterized in that the method comprises steps of: d) detecting, by an orientation sensor of the optical handheld scanning device, a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature, and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device. d) detecting, by an orientation sensor of the optical handheld scanning device, a spatial orientation of the handheld scanning device in a predetermined coordinate reference system (x, y, z) in connection with the identification of the first spatial orientation feature, and e) determining a spatial orientation of the transducer in the predetermined coordinate reference system (x, y, z) based on the first spatial orientation feature and the detected spatial orientation of the optical scanning device.
A connector for butt-joining two components (21a, 21b), in particular two chipboards, comprising two connector parts which, mutually rotated through 90°, can be pushed together, into one another, into a locked assembly position and are in the form of U-shaped brackets (2a, 2b) having two outer bracket arms, which respectively have a rear plug-in portion for insertion into a circular drill hole (22a, 22b) of one component (21a, 21b) and an expandable front plug-in portion, forming the free bracket end, for insertion into a circular drill hole (22b, 22a) of the other component (21b, 21a), a middle bracket arm for expansion of the two front plug-in portions of the respectively other bracket in the assembly position, and at least one locking portion (10, 11; 18, 19) for the mutual locking of the two brackets (2a, 2b) in the assembly position, characterized in that the outer sides of the rear plug-in portions are each configured as partial cylindrical surfaces of the same circular cylinder or, at least approximately, as partial cylindrical surfaces of the same circular cylinder. two connector parts which, mutually rotated through 90°, can be pushed together, into one another, into a locked assembly position and are in the form of U-shaped brackets (2a, 2b) having two outer bracket arms, which respectively have a rear plug-in portion for insertion into a circular drill hole (22a, 22b) of one component (21a, 21b) and an expandable front plug-in portion, forming the free bracket end, for insertion into a circular drill hole (22b, 22a) of the other component (21b, 21a), a middle bracket arm for expansion of the two front plug-in portions of the respectively other bracket in the assembly position, and at least one locking portion (10, 11; 18, 19) for the mutual locking of the two brackets (2a, 2b) in the assembly position, characterized in that the outer sides of the rear plug-in portions are each configured as partial cylindrical surfaces of the same circular cylinder or, at least approximately, as partial cylindrical surfaces of the same circular cylinder.
A valvular closure element, in particular for dispensing a liquid from a container, said valvular closure element comprising - a support element (10, 110) having an annular shape, and - a valve insert (12, 112) having a side wall and a cover portion (17, 117), being made of a resilient material, and abutting to an internal surface of the support element (10, 110) by its side wall, said cover portion (17, 117) being formed with slits (14, 114) defining valve flaps (15, 115), wherein each valve flap (15, 115) has an adjoining periphery connected to the side wall, the side wall having a cylindrical shape, and the slits (14, 114) being formed radially, characterised in that a projection (18, 118) for closing the respective valve flap (15, 115) is formed on the external periphery of the support element (10, 110) for each valve flap (15, 115) at the middle of the adjoining periphery of the respective valve flap (15, 115). - a support element (10, 110) having an annular shape, and - a valve insert (12, 112) having a side wall and a cover portion (17, 117), being made of a resilient material, and abutting to an internal surface of the support element (10, 110) by its side wall, said cover portion (17, 117) being formed with slits (14, 114) defining valve flaps (15, 115), wherein each valve flap (15, 115) has an adjoining periphery connected to the side wall, the side wall having a cylindrical shape, and the slits (14, 114) being formed radially,