mhurhangee/ep-ind-claims huggingface dataset:
A data processor comprising: a reference signal generator adapted to generate a gradually varying reference signal, which is used to convert a level of an analog processing signal into digital data; a comparator adapted to compare the processing signal with the reference signal generated by the reference signal generator; and a counter adapted to perform a complement number count operation of a count process during a period from a time point when the processing signal is equal to the reference signal to a time point when the AD conversion period of the complement number count operation expires, in order to determine one of a reference component of the processing signal and a signal component of the processing signal, wherein the counter is adapted to perform a real number count operation of a count process during a period from a time point when the reference signal has a predetermined initial value to a time point when the processing signal is equal to the reference signal in order to determine the other of the reference component of the processing signal and the signal component of the processing signal. a reference signal generator adapted to generate a gradually varying reference signal, which is used to convert a level of an analog processing signal into digital data; a comparator adapted to compare the processing signal with the reference signal generated by the reference signal generator; and a counter adapted to perform a complement number count operation of a count process during a period from a time point when the processing signal is equal to the reference signal to a time point when the AD conversion period of the complement number count operation expires, in order to determine one of a reference component of the processing signal and a signal component of the processing signal, wherein the counter is adapted to perform a real number count operation of a count process during a period from a time point when the reference signal has a predetermined initial value to a time point when the processing signal is equal to the reference signal in order to determine the other of the reference component of the processing signal and the signal component of the processing signal.
A tangible media embodying computer readable code instructions for performing a method of controlling a teleoperated surgical system (70, 120, 140, 160) having a manipulator coupled with a support structure by a set-up linkage (78, 80), the set-up linkage (78, 80) including a joint (84, 108, 500) having a range of motion, the set-up linkage (78, 80) being configured to facilitate an alignment of the manipulator with a desired position and orientation relative to the support structure, the set-up linkage (78, 80) further including a drive or brake system configured to limit inadvertent movement of the set-up linkage (78, 80) relative to the support structure when actuated, the method comprising: identifying a first software defined range of motion limit spaced a distance apart from a first physical range of motion limit of the joint (84, 108, 500) and defining a first range of motion limit envelope (510, 514) between the first software defined range of motion limit and the first physical range of motion limit; receiving a user input for halting a driving or braking by the drive or brake system to allow for manual positioning of the manipulator relative to the support structure through movement of the joint (84, 108, 500) of the set-up linkage (78, 80); halting a driving or braking by the drive or brake system in response to receiving the user input; detecting a position of the joint (84, 108, 500) within the range of motion; and receiving a user input for reapplying the driving or braking by the drive or brake system and, in response, delaying reapplication of the driving or braking by the drive or brake system of the set-up linkage (78, 80) for at least a duration of time when the position of the joint is detected to be within the first range of motion limit envelope (510, 514). identifying a first software defined range of motion limit spaced a distance apart from a first physical range of motion limit of the joint (84, 108, 500) and defining a first range of motion limit envelope (510, 514) between the first software defined range of motion limit and the first physical range of motion limit; receiving a user input for halting a driving or braking by the drive or brake system to allow for manual positioning of the manipulator relative to the support structure through movement of the joint (84, 108, 500) of the set-up linkage (78, 80); halting a driving or braking by the drive or brake system in response to receiving the user input; detecting a position of the joint (84, 108, 500) within the range of motion; and receiving a user input for reapplying the driving or braking by the drive or brake system and, in response, delaying reapplication of the driving or braking by the drive or brake system of the set-up linkage (78, 80) for at least a duration of time when the position of the joint is detected to be within the first range of motion limit envelope (510, 514).
A method for the removal of urea dust from the off-gas of a finishing section of a urea production plant, the method comprising subjecting the off-gas to quenching with water so as to produce quenched off-gas, and subjecting the quenched off-gas to scrubbing using at least one venturi scrubber, whereby the quenching takes place before the off-gas enters the venturi scrubber, and comprising adding a scrubbing liquid to the venturi scrubber at its throat or at the entrance to its converging section such that the scrubbing liquid enters the quenched off-gas.
Operator control device having an operator control element with haptic feedback, wherein the operator control element can be activated by an operator by means of an input member, having a first and a second planar component which are oriented parallel to one another with their large surfaces and can move relative to one another, wherein the first planar component forms the operator control element or transmits its movement entirely or partially to the operator control element, wherein the planar components (2, 3) are guided between a position of rest and an activation position while maintaining their parallel position with respect to one another, wherein in the activation position the distance between the two planar components (2, 3) is smaller than in the position of rest, and the two planar components (2, 3) are spring loaded in their position of rest, and wherein the planar components (2, 3) can be driven by an actuator counter to the spring force such that they can be moved out of their position of rest into their activation position, wherein the planar components (2, 3) are composed entirely or partially of a ferromagnetic material, characterized in that at least one coil is arranged between the planar components (2, 3), wherein by energizing the coil the planar components (2, 3) can be moved with relative displacement in their planes with respect to one another such that their distance from one another is reduced, in that the coil is a flat coil (5, 5') which is arranged on a printed circuit board.
A wearable electronic device comprising: a housing comprising an opening, an inner surface, and an outer surface; a cover member positioned over the opening; and characterized in that: the cover member comprises an engagement channel on a surface of the cover member; and a retention member positioned within the housing and against the inner surface, and comprising an engagement element engaging the engagement channel of the cover member, the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing. a housing comprising an opening, an inner surface, and an outer surface; a cover member positioned over the opening; and characterized in that: the cover member comprises an engagement channel on a surface of the cover member; and a retention member positioned within the housing and against the inner surface, and comprising an engagement element engaging the engagement channel of the cover member, the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing. the cover member comprises an engagement channel on a surface of the cover member; and a retention member positioned within the housing and against the inner surface, and comprising an engagement element engaging the engagement channel of the cover member, the retention member being rotatable relative to the cover member and the housing to secure the cover member against the outer surface of the housing.
A signal processing method for suppression of the impact sound in the noisy signal comprising the steps of: detecting an impact sound in a noisy signal and processing phase information of the detected impact sound by using the phase information of a noisy signal other than the impact sound in the noisy signal so that an amount of change in the phase information is reduced. detecting an impact sound in a noisy signal and processing phase information of the detected impact sound by using the phase information of a noisy signal other than the impact sound in the noisy signal so that an amount of change in the phase information is reduced.
A refrigeration cycle apparatus including a compressor, a condenser, first expansion means, and an evaporator, the compressor, the condenser, the first expansion means, and the evaporator being connected by refrigerant pipes to form a refrigeration cycle, wherein the evaporator is a heat exchanger including a plurality of plate-like heat transfer fins arranged in parallel, and a heat transfer tube provided in contact with the plurality of heat transfer fins such that refrigerant flows therein, and wherein the refrigeration cycle apparatus further comprises: a drain pan disposed below the evaporator; an evaporator fan for producing an air current flowing to the evaporator; and a heating unit disposed at a position below the heat transfer fins and on a leeward side of the heat transfer fins, wherein at least a part of the heating unit is formed by one of the refrigerant pipes, characterised in that a water slip or water repellent treatment is provided on the plurality of heat transfer fins; and in that the heating unit is provided with a plurality of fin portions disposed in a direction in which the heat transfer fins are arranged in parallel, and is disposed in a lowermost portion of the evaporator on a leeward side of the air current, and wherein the heating unit is provided such that the fin portions are inserted between the heat transfer fins of the evaporator. a drain pan disposed below the evaporator; an evaporator fan for producing an air current flowing to the evaporator; and a heating unit disposed at a position below the heat transfer fins and on a leeward side of the heat transfer fins, wherein at least a part of the heating unit is formed by one of the refrigerant pipes,
A three-dimensional surface roughness evaluating device comprising: a two-dimensional laser displacement meter; a movement mechanism which moves the two-dimensional laser displacement meter in an X-axis direction; and a movement distance measuring device which measures a movement distance of the two-dimensional laser displacement meter in the X-axis direction a calculating device which generates three-dimensional surface roughness data of a measurement target on the basis of displacement data acquired by the two-dimensional laser displacement meter and movement distance data acquired by the movement distance measuring device, wherein the two-dimensional laser displacement meter is disposed so that the width direction of the two-dimensional laser displacement meter coincides with a Y-axis direction, to be able to measure displacement data of coordinates in the Y-axis direction at fixed intervals, the measuring width of the two-dimensional laser displacement meter is at least two or more times mean width of the roughness profile elements RSm of elements of a measurement target, and the calculating device is configured to generate reference surface data of each coordinate by averaging in the Y-axis direction the displacement data acquired at fixed intervals in the X-axis direction by the two-dimensional laser displacement meter, and generate three-dimensional surface roughness data of the measurement target by subtracting the reference surface data of each coordinate from the displacement data of each X-Y plane coordinate. a two-dimensional laser displacement meter; a movement mechanism which moves the two-dimensional laser displacement meter in an X-axis direction; and a movement distance measuring device which measures a movement distance of the two-dimensional laser displacement meter in the X-axis direction a calculating device which generates three-dimensional surface roughness data of a measurement target on the basis of displacement data acquired by the two-dimensional laser displacement meter and movement distance data acquired by the movement distance measuring device, wherein the two-dimensional laser displacement meter is disposed so that the width direction of the two-dimensional laser displacement meter coincides with a Y-axis direction, to be able to measure displacement data of coordinates in the Y-axis direction at fixed intervals, the measuring width of the two-dimensional laser displacement meter is at least two or more times mean width of the roughness profile elements RSm of elements of a measurement target, and the calculating device is configured to generate reference surface data of each coordinate by averaging in the Y-axis direction the displacement data acquired at fixed intervals in the X-axis direction by the two-dimensional laser displacement meter, and generate three-dimensional surface roughness data of the measurement target by subtracting the reference surface data of each coordinate from the displacement data of each X-Y plane coordinate.
A system comprising a crane, in particular tower crane, and an external master computer, wherein the crane is equipped with a load lifting means mounted on a hoisting cable, driving devices for moving several crane elements and traversing the load lifting means, and a control device for controlling the driving devices such that the load lifting means moves along a traversing path between at least two target points (500, 510), wherein the control device includes - a traversing path determining module for determining a desired traversing path between the at least two target points (500, 510), which is connected to a playback device for determining the desired traversing path and/or desired target and intermediate points (500... 510) of the traversing path by manually traversing the load lifting means along the desired traversing path, and - an automatic traversing control module for automatically traversing the load lifting means along the determined traversing path, characterized in that the traversing path control module is coupled to the external master computer which has access to a building data module and provides target and intermediate points (500... 510) for determining the traversing path, wherein the master computer cyclically or continuously provides updated data concerning the building contours of various building phases, and the traversing path determining module is configured to take account of the updated data concerning the building contours when determining the traversing path. - a traversing path determining module for determining a desired traversing path between the at least two target points (500, 510), which is connected to a playback device for determining the desired traversing path and/or desired target and intermediate points (500... 510) of the traversing path by manually traversing the load lifting means along the desired traversing path, and - an automatic traversing control module for automatically traversing the load lifting means along the determined traversing path,
A tyre, comprising: - two toroidal bead portions, each housing an annular bead bundle and having an external abrasion gum strip; - a toroidal body ply, folded, at each of its transversal endings, about a respective bead bundle forming a respective turn-up; - two bead fillers, one for each bead portion, each in contact with a respective bead bundle and at least partly enclosed by a respective turn-up of said body ply, wherein the tyre further comprises two crack control members, one for each bead portion and made in particular of elastomer, wherein each crack control member extends at a body ply ending axially externally to the respective turn-up, each crack control member having a differentiated stiffness along its transversal section, with a lower stiffness at a first portion adjacent to said body ply ending and a higher stiffness at a second portion remote from said body ply ending and adjacent a respective abrasion gum strip, the configuration being such that said first lower stiffness portion of said crack control member defines a preferential propagation path for any tyre crack originating at said body ply ending, characterized in that each of said crack control members is obtained as a part of, and/or is integral to, the respective bead filler. - two toroidal bead portions, each housing an annular bead bundle and having an external abrasion gum strip; - a toroidal body ply, folded, at each of its transversal endings, about a respective bead bundle forming a respective turn-up; - two bead fillers, one for each bead portion, each in contact with a respective bead bundle and at least partly enclosed by a respective turn-up of said body ply,
A battery wiring module to be attached to an electric cell group constituted by an array of a plurality of electric cells each having positive and negative electrode terminals, the battery wiring module comprising: a bus bar to be connected to the electrode terminals; a detection wire for detecting a state of the electric cell group; a resin protector that holds the bus bar; a lid portion for covering the bus bar, the lid portion being formed integrally with the resin protector, and being made of an insulating material; and a pair of wall portions (64A, 64B) disposed on a face of the lid portion opposite to the bus bar in a direction intersecting the lid portion, the pair of wall portions (64A, 64B) configured to form a routing space therebetween in which the detection wire is routed. a bus bar to be connected to the electrode terminals; a detection wire for detecting a state of the electric cell group; a resin protector that holds the bus bar; a lid portion for covering the bus bar, the lid portion being formed integrally with the resin protector, and being made of an insulating material; and a pair of wall portions (64A, 64B) disposed on a face of the lid portion opposite to the bus bar in a direction intersecting the lid portion, the pair of wall portions (64A, 64B) configured to form a routing space therebetween in which the detection wire is routed.
A plug connector assembly, comprising a prefabricated electrical cable and a plug connector that is connected to at least one cable end of the prefabricated electrical cable, wherein the prefabricated cable has an outer conductor shield, an insulation element, and an inner conductor which is enclosed by the insulation element, wherein the insulation element has a first longitudinal portion (L 1) in which the insulation element is laid bare from the outer conductor shield, and a second longitudinal portion (L 2) which adjoins the first longitudinal portion (L 1) and in which the insulation element is enclosed by the outer conductor shield, wherein a cross-sectional area of the insulation element in the first longitudinal portion (L 1) in relation to the cross-sectional area of the insulation element in the second longitudinal portion (L 2) is modified in such a manner that the first longitudinal portion (L 1) is insertable into a first plug connector portion (S 1) of an outer conductor contact element of a plug connector, and in the first longitudinal portion (L 1) the insulation element is calibrated to the outer conductor contact element, which means that in the first longitudinal portion (L 1) the cross section of the insulation element, in particular the external diameter of the insulation element, is adapted to the cross section of the outer conductor contact element, particularly to the internal diameter of the outer conductor contact element, and wherein the first longitudinal portion (L 1) of the insulation element is inserted into the fist plug connector portion (S 1) of the external conductor contact element of the plug connector, characterized in that the first longitudinal portion (L 1) of the insulation element is inserted into the outer conductor contact element of the plug connector without an intervening layer of air.
Hydrocyclone assembly for the centrifugal separation of solids from a slurry, comprising: - at least one first hydrocyclone (2.1) which has a first separating chamber (3.1), a first inflow (4.1) which leads tangentially into the first separating chamber (3.1) and is intended for feeding the slurry into the first separating chamber (3.1), a first underflow (5.1) for discharging a separated-out heavy fraction and a first overflow pipe (6.1) for discharging a depleted slurry fraction, - at least one second hydrocyclone (2.2) which has a second separating chamber (3.2), a second inflow (4.2) which leads tangentially into the second separating chamber (3.2) and is intended for feeding the slurry into the second separating chamber (3.2), a second underflow (5.2) for discharging a separated-out heavy fraction and a second overflow pipe (6.2) for discharging a depleted slurry fraction, and - a common outlet for the depleted slurry fractions of both the at least one first hydrocyclone (2.1) and the at least one second hydrocyclone (2.2), characterized in that the common outlet is inside a common inlet housing of the hydrocyclone assembly, and the first overflow pipe (6.1) and the second overflow pipe (6.2) are assigned a respective deflection device (8.1, 8.2), which is inside the inlet housing and is designed to deflect the axially exiting depleted slurry fraction in a direction with a radial directional component, with the result that the depleted slurry fractions are introduced into the common outlet in each case with these radial directional components. - at least one first hydrocyclone (2.1) which has a first separating chamber (3.1), a first inflow (4.1) which leads tangentially into the first separating chamber (3.1) and is intended for feeding the slurry into the first separating chamber (3.1), a first underflow (5.1) for discharging a separated-out heavy fraction and a first overflow pipe (6.1) for discharging a depleted slurry fraction, - at least one second hydrocyclone (2.2) which has a second separating chamber (3.2), a second inflow (4.2) which leads tangentially into the second separating chamber (3.2) and is intended for feeding the slurry into the second separating chamber (3.2), a second underflow (5.2) for discharging a separated-out heavy fraction and a second overflow pipe (6.2) for discharging a depleted slurry fraction, and - a common outlet for the depleted slurry fractions of both the at least one first hydrocyclone (2.1) and the at least one second hydrocyclone (2.2), characterized in that