mhurhangee/ep-ind-claims huggingface dataset:
A handle assembly of a hand-held electromechanical surgical device, the handle assembly comprising: a power pack including: a core assembly having a plurality of motors (152, 154, 156) and a plurality of drive shafts (152a, 154a, 156a) operably coupled to a respective one of the plurality of motors, a processor connected to and configured to control each motor; and a battery electrically connected to the processor and each motor; and an inner housing encasing at least the plurality of motors, the processor and the battery; an outer shell housing including distal and proximal half-sections which when joined define a cavity configured to selectively receive the power pack therein, the distal half-section having a connecting portion for coupling to an adapter assembly; and a barrier plate assembly disposed between the connecting portion of the distal half-section of the outer shell housing and the inner housing of the power pack, wherein a rotation of each drive shaft by the respective motor is transmitted through the inner housing and the outer shell housing via the barrier plate assembly; characterised in that the barrier plate assembly further includes at least one rotatable coupling shaft (64a, 64b, 64c) and a plate supporting the at least one coupling shaft, the at least one rotatable coupling shaft having a proximal end configured to receive rotative forces from a respective one of the plurality of drive shafts (152a, 154a, 156a), and a distal end projecting from the handle assembly extending through the distal half-section of the outer shell housing. a core assembly having a plurality of motors (152, 154, 156) and a plurality of drive shafts (152a, 154a, 156a) operably coupled to a respective one of the plurality of motors, a processor connected to and configured to control each motor; and a battery electrically connected to the processor and each motor; and an inner housing encasing at least the plurality of motors, the processor and the battery; an outer shell housing including distal and proximal half-sections which when joined define a cavity configured to selectively receive the power pack therein, the distal half-section having a connecting portion for coupling to an adapter assembly; and a barrier plate assembly disposed between the connecting portion of the distal half-section of the outer shell housing and the inner housing of the power pack, wherein a rotation of each drive shaft by the respective motor is transmitted through the inner housing and the outer shell housing via the barrier plate assembly; characterised in that the barrier plate assembly further includes at least one rotatable coupling shaft (64a, 64b, 64c) and a plate supporting the at least one coupling shaft, the at least one rotatable coupling shaft having a proximal end configured to receive rotative forces from a respective one of the plurality of drive shafts (152a, 154a, 156a), and a distal end projecting from the handle assembly extending through the distal half-section of the outer shell housing.
An aerodynamic coefficient estimation device (1, 10) comprising: a deflection angle command signal generation means that is configured to generate a deflection angle command signal for estimating an aerodynamic coefficient indicating an aerodynamic characteristic of an airframe; a kinetic state quantity acquisition means that is configured to acquire a kinetic state quantity of the airframe that is sensor information related to a kinetic state and is obtained as a result of a control surface provided on the airframe being moved based on the deflection angle command signal; the aerodynamic coefficient estimation device is characterized by a candidate value calculation means that is configured to calculate a plurality of candidate values for estimating the aerodynamic coefficient from the kinetic state quantity using two or more different estimations; and an aerodynamic coefficient estimate determination means that is configured to finally determine one aerodynamic coefficient estimate based on the plurality of candidate values. a deflection angle command signal generation means that is configured to generate a deflection angle command signal for estimating an aerodynamic coefficient indicating an aerodynamic characteristic of an airframe; a kinetic state quantity acquisition means that is configured to acquire a kinetic state quantity of the airframe that is sensor information related to a kinetic state and is obtained as a result of a control surface provided on the airframe being moved based on the deflection angle command signal; the aerodynamic coefficient estimation device is characterized by a candidate value calculation means that is configured to calculate a plurality of candidate values for estimating the aerodynamic coefficient from the kinetic state quantity using two or more different estimations; and an aerodynamic coefficient estimate determination means that is configured to finally determine one aerodynamic coefficient estimate based on the plurality of candidate values.
A clipping machine for producing sausage-shaped products, like sausages, by filing a flowable filling material into a tubular or bag-shaped packaging casing and closing said packaging casing by at least one closure means, like a closure clip, wherein the tubular or bag-shaped packaging casing has a seam extending longitudinally, the clipping machine comprises a filling tube having a central axis, for feeding the filling material in a feeding direction through an output opening into the tubular or bag-shaped packaging casing stored on the filling tube and closed at its first end, gathering means for gathering the filled tubular or bag-shaped packaging casing and for forming a plait-like portion thereto, a clipping device having at least a first and second closing tool (42, 44) reversibly movable between an opened position and a closed position, for applying at least one closure means to the plait-like portion and for closing said closure means when the closing tools (42, 44) are in their closed position, and an unfolding device which is positioned on the filling tube coaxially thereto with a distance to the output opening of said filling tube, wherein said unfolding device has at least a first portion having at least an area of a cross-section of non-circular shape constant over an axial length of said area characterized in that the first portion of the unfolding device has at least one approximately rectangular cross-section defining an upper and a lower parallel flat surface as well as first and second parallel aligned side surfaces, and wherein the first portion of the unfolding device includes at least one groove in at least one of the side surfaces, parallel aligned to the central axis of the filling tube, for preferably accommodating the longitudinal seam of the tubular packaging casing when being unfolded.
Electrochemical accumulator, in particular a metal-ion accumulator, comprising at least one electrochemical cell and a flexible packaging that is arranged to contain the at least one electrochemical cell in a sealtight manner while at the same time having a portion of the current collectors that form the output terminals (4, 5) of the accumulator passing through it, the flexible packaging incorporating, on at least one of its outer faces, reliefs that form at least a portion of cooling ducts of the accumulator in which a heat-transfer fluid is intended to circulate, the reliefs being ribs that are made from compressible material and are printed directly onto the one or more outer faces of the flexible packaging.
A blade row for a turbomachine having a plurality of blades (11,...14; 21,...25; 31,...37) exhibiting a monocrystalline material, wherein each blade has a crystal orientation value (|α|) which depends on a crystal orientation of the monocrystalline material of the blade; and wherein the crystal orientation values of first blades (11,...14) are lower than a first limiting value and the crystal orientation values of second blades (21,...25; 31,..,37) are at least equal to the first limiting value; characterized in that at least a first blade exhibits a first body assembly having at least one first body movably mounted to the first blade; and at least a second blade exhibits a second body assembly different therefrom, having at least one second body movably mounted to the second blade.
Belt consisting at least of: - a belt body composed of a polymeric material having elastic properties and comprising a top ply as belt backing and a substructure having a power transmission zone; and also - a tensile member embedded in the belt body and being in cord construction, wherein the tensile member has been treated with a crosslinked polyurethane, formed from a polyurethane prepolymer and a crosslinker, in such a way that the polyurethane fills at least some of the tensile member voids, the polyurethane filling material forming both a mechanical attachment to the tensile member and an adherent bond with the belt body; characterized in that the polyurethane filling material has a Shore A hardness which is greater by 0.5 to 10 than the belt body. - a belt body composed of a polymeric material having elastic properties and comprising a top ply as belt backing and a substructure having a power transmission zone; and also - a tensile member embedded in the belt body and being in cord construction, wherein the tensile member has been treated with a crosslinked polyurethane, formed from a polyurethane prepolymer and a crosslinker, in such a way that the polyurethane fills at least some of the tensile member voids, the polyurethane filling material forming both a mechanical attachment to the tensile member and an adherent bond with the belt body;
An endoscope apparatus, comprising: an endoscope including an imaging element, and a control device for the endoscope, the control device being configured to be housed in a housing unit and comprising a pattern detection unit configured to acquire a captured image signal, which is output from the imaging element included in the endoscope, and configured to detect a predetermined pattern from the captured image signal; and a state identification unit configured to recognize that the endoscope is in a non-use state in a case where the pattern is detected and configured to recognize that the endoscope is in a use state in a case where the pattern is not detected; wherein, in a state in which the endoscope is held by an endoscope holding unit for holding the endoscope provided in the housing unit, the detected pattern is (i) a shape of a mark disposed on an object present in an imaging range of the imaging element and/or (ii) a shape of the housing unit present in the imaging range. an endoscope including an imaging element, and a control device for the endoscope, the control device being configured to be housed in a housing unit and comprising a pattern detection unit configured to acquire a captured image signal, which is output from the imaging element included in the endoscope, and configured to detect a predetermined pattern from the captured image signal; and a state identification unit configured to recognize that the endoscope is in a non-use state in a case where the pattern is detected and configured to recognize that the endoscope is in a use state in a case where the pattern is not detected; wherein, in a state in which the endoscope is held by an endoscope holding unit for holding the endoscope provided in the housing unit, the detected pattern is (i) a shape of a mark disposed on an object present in an imaging range of the imaging element and/or (ii) a shape of the housing unit present in the imaging range.
Apparatus for protecting a damper, comprising - a protective tube which is fastened to the damper, - a damper cap (340; 542; 642), for closing a damper tube of the damper, and - at least two spacer elements (560; 660) which are fastened to the damper cap (340; 542; 642) and extend radially within the protective tube in the axial direction, the at least two spacer elements (560; 660) being configured as struts which extend in the axial direction, are closed by a ring at both ends and therefore form a guide cage (544; 644), and the at least two spacer elements (560; 660) being configured in such a way that, upon actuation of the damper, the protective tube can slide along on them in such a way that impact or rubbing of the protective tube on the damper tube is avoided. - a protective tube which is fastened to the damper, - a damper cap (340; 542; 642), for closing a damper tube of the damper, and - at least two spacer elements (560; 660) which are fastened to the damper cap (340; 542; 642) and extend radially within the protective tube in the axial direction,
An intake and exhaust system for an engine, comprising: an exhaust gas recirculation passage (15, 16, 17) configured to recirculate a portion of exhaust gas as EGR gas, from an exhaust passage (2a, 11, 12, 13, 14) of the engine to an intake passage (2b, 3, 4, 5, 8); and an EGR cooler disposed in the EGR passage (15, 16, 17), the EGR cooler being coupled to a passage wall of the exhaust passage (2a, 11, 12, 13, 14) at an EGR gas inlet side, and having a center line intersecting with a flow direction of exhaust gas in the exhaust passage (2a, 11, 12, 13, 14), wherein a through-hole communicating the EGR cooler with the exhaust passage (2a, 11, 12, 13, 14) is a long hole elongated substantially in the flow direction in the exhaust passage (2a, 11, 12, 13, 14), wherein an exhaust gas purifier is provided in an intermediate part of the exhaust passage (2a, 11, 12, 13, 14), wherein the exhaust gas passage (2a, 11, 12, 13, 14) has a curved pipe on a downstream side of the exhaust gas purifier in the flow direction to change the flow direction, wherein the through-hole communicating the EGR cooler with the exhaust passage (2a, 11, 12, 13, 14) opens to a passage wall of the curved pipe of the exhaust passage (2a, 11, 12, 13, 14) at an outer circumferential side of the curve of the exhaust passage on an upper surface of the curved pipe, and the EGR cooler is directly attached to the curved pipe. an exhaust gas recirculation passage (15, 16, 17) configured to recirculate a portion of exhaust gas as EGR gas, from an exhaust passage (2a, 11, 12, 13, 14) of the engine to an intake passage (2b, 3, 4, 5, 8); and an EGR cooler disposed in the EGR passage (15, 16, 17), the EGR cooler being coupled to a passage wall of the exhaust passage (2a, 11, 12, 13, 14) at an EGR gas inlet side, and having a center line intersecting with a flow direction of exhaust gas in the exhaust passage (2a, 11, 12, 13, 14), wherein a through-hole communicating the EGR cooler with the exhaust passage (2a, 11, 12, 13, 14) is a long hole elongated substantially in the flow direction in the exhaust passage (2a, 11, 12, 13, 14), wherein an exhaust gas purifier is provided in an intermediate part of the exhaust passage (2a, 11, 12, 13, 14), wherein the exhaust gas passage (2a, 11, 12, 13, 14) has a curved pipe on a downstream side of the exhaust gas purifier in the flow direction to change the flow direction, wherein the through-hole communicating the EGR cooler with the exhaust passage (2a, 11, 12, 13, 14) opens to a passage wall of the curved pipe of the exhaust passage (2a, 11, 12, 13, 14) at an outer circumferential side of the curve of the exhaust passage on an upper surface of the curved pipe, and the EGR cooler is directly attached to the curved pipe.
A method for increasing a moisture content of a skin surface and improving a moisture retaining function of a dermis by a beauty apparatus comprising a blower, a case having a blow off port and an ion generating device, characterized in that: irradiating a skin surface simultaneously with positive ions and negative ions which are generated by the ion generating device from an air by an electric discharge in an atmosphere, wherein concentrations of the positive and negative ions for irradiating the skin surface are of 7000/cm 3 or more for the respective positive and negative ions. irradiating a skin surface simultaneously with positive ions and negative ions which are generated by the ion generating device from an air by an electric discharge in an atmosphere, wherein concentrations of the positive and negative ions for irradiating the skin surface are of 7000/cm 3 or more for the respective positive and negative ions.
A clockwork movement comprising a chronograph mechanism having starting, stopping and resetting functions arranged to be controlled by a control organ, the chronograph mechanism further having an additional function, characterized in that said additional function is able to be selected, deselected, and controlled by a single control organ made up of a single arbor able to be moved axially and able to be rotated by a user.
A system for reconstructing an image of an object, wherein the system comprises: a projection data providing unit for providing projection data of the object, wherein the projection data has been acquired by a CT system, a base image generation unit for generating a base image based on the projection data, a modifying unit for modifying the base image to generate a modified image, wherein for modifying the base image the modifying unit is adapted to modify an image value of a voxel of the base image based on the image value of the voxel, an image reconstruction unit for reconstructing an image of the object based on the projection data using an iterative reconstruction algorithm that employs the modified image as a start image for the iterative reconstruction, characterized in that the projection data comprises scout scan projection data acquired during a scout scan of the object and diagnostic projection data acquired during a diagnostic scan of the object, wherein the image reconstruction unit is adapted to reconstruct the image of the object based on the scout scan projection data and the diagnostic scan projection data using the iterative reconstruction algorithm, wherein the image reconstruction unit is adapted such that during the iterative reconstruction the scout scan projection data receives a lower weight than the diagnostic projection data. a projection data providing unit for providing projection data of the object, wherein the projection data has been acquired by a CT system, a base image generation unit for generating a base image based on the projection data, a modifying unit for modifying the base image to generate a modified image, wherein for modifying the base image the modifying unit is adapted to modify an image value of a voxel of the base image based on the image value of the voxel, an image reconstruction unit for reconstructing an image of the object based on the projection data using an iterative reconstruction algorithm that employs the modified image as a start image for the iterative reconstruction, characterized in that the projection data comprises scout scan projection data acquired during a scout scan of the object and diagnostic projection data acquired during a diagnostic scan of the object, wherein the image reconstruction unit is adapted to reconstruct the image of the object based on the scout scan projection data and the diagnostic scan projection data using the iterative reconstruction algorithm, wherein the image reconstruction unit is adapted such that during the iterative reconstruction the scout scan projection data receives a lower weight than the diagnostic projection data.
A measuring device having at least one sensor (16, 18), wherein the measuring device can be placed on the skin surface of a patient in order to detect a measured value by means of the sensor (16, 18), characterised by at least one first and at least one second contact surface (20, 22) on an underside of the measuring device that is provided for contact with the skin surface of the patient, and also means (32, 34) for detecting a measuring current that results on account of an electrical resistance effective in each case between the at least one first and second contact surface (20, 22) and comprises a contact signal, wherein the or each sensor (16, 18) and the at least one first and second contact surface (20, 22) are connected electrically in parallel, and wherein a power cut-off element, in particular a diode, is located either in a current path to the or each sensor (16, 18) or in a current path to the at least one first and second contact surface (20, 22).
An electronic cigarette, comprising: an atomizer assembly; the atomizer assembly comprising a silicon mouthpiece, a mouthpiece base, a first sealing ring, a second sealing ring, a glass tube, a shell, a third sealing ring, a cover, a piece of cotton, a pair of transverse heating wires, a heating wire base, a first insulating ring, and a connector; a battery assembly; the battery assembly comprising a battery connector, a second insulating ring, a button base, a regulation ring, a fourth sealing ring, a support, a circuit board, a fixing ring, a steel tube, a button, a battery core, an anode, an insulating cap, and an electrode base; and a bottom part; wherein the atomizer assembly is disposed on the battery assembly, and is in a threaded connection to the battery assembly; the silicon mouthpiece is disposed on the mouthpiece base; the first sealing ring is disposed on a slot of the mouthpiece base; the second sealing ring and the glass tube are combined to seal the silicon mouthpiece; the mouthpiece base is in a threaded connection to the cover; the pair of transverse heating wires is disposed on a bottom of the atomizer assembly; the pair of transverse heating wires is disposed on the heating wire base; and the first insulating ring and the connector are disposed on a bottom of the heating wire base; the piece of cotton and the cover are sleeved on and compressed on the heating wire base, the shell is sleeved on the heating wire base; the third sealing ring is sleeved on the shell; wherein the bottom part comprises a charging structure using magnets. an atomizer assembly; the atomizer assembly comprising a silicon mouthpiece, a mouthpiece base, a first sealing ring, a second sealing ring, a glass tube, a shell, a third sealing ring, a cover, a piece of cotton, a pair of transverse heating wires, a heating wire base, a first insulating ring, and a connector; a battery assembly; the battery assembly comprising a battery connector, a second insulating ring, a button base, a regulation ring, a fourth sealing ring, a support, a circuit board, a fixing ring, a steel tube, a button, a battery core, an anode, an insulating cap, and an electrode base; and a bottom part; wherein the atomizer assembly is disposed on the battery assembly, and is in a threaded connection to the battery assembly; the silicon mouthpiece is disposed on the mouthpiece base; the first sealing ring is disposed on a slot of the mouthpiece base; the second sealing ring and the glass tube are combined to seal the silicon mouthpiece; the mouthpiece base is in a threaded connection to the cover; the pair of transverse heating wires is disposed on a bottom of the atomizer assembly; the pair of transverse heating wires is disposed on the heating wire base; and the first insulating ring and the connector are disposed on a bottom of the heating wire base; the piece of cotton and the cover are sleeved on and compressed on the heating wire base, the shell is sleeved on the heating wire base; the third sealing ring is sleeved on the shell; wherein the bottom part comprises a charging structure using magnets.