mhurhangee/ep-ind-claims huggingface dataset:
A monitoring system for a centrifuge blood processing system for separating fluid components and having a separation chamber rotating about a central rotation axis, comprising: a first light source capable of optical communication with said centrifuge blood processing system for providing an incident light beam for illuminating an observation region on said centrifuge blood processing system, thereby generating light transmitted, scattered or both from said observation region; a light collection element capable of optical communication with said centrifuge blood processing system for collecting at least a portion of said light transmitted, scattered or both from said observation region; a programmable controller for providing an operational procedure for said monitoring system; an independent dedicated control circuit in electrical communication with said programmable controller and electrically coupled to said first light source, said control circuit receiving command parameters from said programmable controller and controlling periods of illumination from said first light source in response to said command parameters; and an encoder capable of being coupled to said separation chamber, said encoder being for communicating a signal related to a rotational position of said separation chamber to said dedicated control circuit; characterized in that: said dedicated control circuit is arranged to identify an initial zero position of said separation chamber from said encoder signal. a first light source capable of optical communication with said centrifuge blood processing system for providing an incident light beam for illuminating an observation region on said centrifuge blood processing system, thereby generating light transmitted, scattered or both from said observation region; a light collection element capable of optical communication with said centrifuge blood processing system for collecting at least a portion of said light transmitted, scattered or both from said observation region; a programmable controller for providing an operational procedure for said monitoring system; an independent dedicated control circuit in electrical communication with said programmable controller and electrically coupled to said first light source, said control circuit receiving command parameters from said programmable controller and controlling periods of illumination from said first light source in response to said command parameters; and an encoder capable of being coupled to said separation chamber, said encoder being for communicating a signal related to a rotational position of said separation chamber to said dedicated control circuit; characterized in that: said dedicated control circuit is arranged to identify an initial zero position of said separation chamber from said encoder signal. said dedicated control circuit is arranged to identify an initial zero position of said separation chamber from said encoder signal.
A personal care device comprising a main housing, a hair-cutting module being displaceable with respect to the main housing against spring force in a direction parallel to a main axis, and a sensor (15, 25, 35, 45) comprising a first sensor unit connected to the main housing and a second sensor unit connected to the hair-cutting module, said sensor being arranged and configured to measure a displacement of the second sensor unit with respect to the first sensor unit in a direction parallel to the main axis, characterized in that the hair-cutting module is tiltable with respect to the main housing against spring force about at least one tilt axis (12, 13) extending perpendicularly to the main axis, wherein the first sensor unit is arranged in at least a first and a second location relative to the main housing and wherein the second sensor unit is arranged in at least a third and a fourth location relative to the hair-cutting module adjacent to, respectively, the first and the second location seen in directions parallel to the main axis, a distance between the first and the second location being at least 25% of a distance between the first and the third location, and wherein during tilting of the hair-cutting module with respect to the main housing a change in distance between the first and the third location is different from a change in distance between the second and the fourth location.
Process for producing a lid closure for cans containing foodstuff, the lid providing tightness during sterilization or pasteurization in a continuous autoclave, said cans being closed with a can closure as lid, wherein (i) the can closure is produced from an annular ring adapted for seaming to the can body and a lid panel (3; 3a, 3b) having an outer ring band and sealingly affixed onto an inner flat web of the annular ring; (ii) a central area of the lid panel, limited by the outer ring band, is tighteningly reshaped to a smooth bowl shape or a dome shape with a plane surface, as original shape, a material of this central area by this reshaping being solidified or hardened to such an extent that - under an increased pressure in a headspace of the can during a passage thereof through an autoclave station, the central area changes to an axially outwardly bulged shape that is mirror-inverted with respect to the original shape and, during a subsequent cooling of the can, the central area automatically returns substantially to the original shape thereof. (i) the can closure is produced from an annular ring adapted for seaming to the can body and a lid panel (3; 3a, 3b) having an outer ring band and sealingly affixed onto an inner flat web of the annular ring; (ii) a central area of the lid panel, limited by the outer ring band, is tighteningly reshaped to a smooth bowl shape or a dome shape with a plane surface, as original shape, a material of this central area by this reshaping being solidified or hardened to such an extent that - under an increased pressure in a headspace of the can during a passage thereof through an autoclave station, the central area changes to an axially outwardly bulged shape that is mirror-inverted with respect to the original shape and, during a subsequent cooling of the can, the central area automatically returns substantially to the original shape thereof. - under an increased pressure in a headspace of the can during a passage thereof through an autoclave station, the central area changes to an axially outwardly bulged shape that is mirror-inverted with respect to the original shape and, during a subsequent cooling of the can, the central area automatically returns substantially to the original shape thereof.
A method of a content computing device to enable temporary remote access to data stored in the content computing device using biometric data for authentication, the method comprising: establishing, by the content computing device, a communication session between the content computing device and a remote computing device; receiving, by the content computing device from a biometric sensor, a signal confirming biometric authentication thereby establishing an authentication session between the content computing device and the biometric sensor; granting, by the content computing device, the temporary remote access for the remote computing device to the data stored in a data storage of the content computing device during said communication session and while the authentication session remains valid, wherein the content computing device is proximate to the biometric sensor. establishing, by the content computing device, a communication session between the content computing device and a remote computing device; receiving, by the content computing device from a biometric sensor, a signal confirming biometric authentication thereby establishing an authentication session between the content computing device and the biometric sensor; granting, by the content computing device, the temporary remote access for the remote computing device to the data stored in a data storage of the content computing device during said communication session and while the authentication session remains valid, wherein the content computing device is proximate to the biometric sensor.
A rail system for a loading floor of a motor vehicle having at least one first rail, the first rail being adjustable in height between a lower rest position and an upper operating position, the at least one first rail comprising an actuating area on the underside thereof having at least one actuating ramp extending in the longitudinal direction of the first rail and an adjusting member comprising an actuating element for displacing along the actuating area being disposed below the actuating area, the adjusting member being displaceable by means of an electric drive, characterized in that a carriage or a Bowden cable or a transmission cable is disposed as a transmission means between the adjusting member and the electric drive.
A method for manufacturing a solar cell which includes steps of forming a p-n junction on a silicon semiconductor substrate and forming an aluminum oxide film on at least one main surface of the silicon semiconductor substrate, comprising: a step of subjecting the silicon semiconductor substrate to heat treatment in an atmosphere with 20 g or more water vapor per cubic meter and a temperature of 60°C or more and 100°C or less before the step of forming the aluminum oxide film.
A directional coupler (500; 600; 700) comprising: a metal plate (510; 610; 710) functioning as a ground plane; a dielectric substrate (501; 601; 701) provided on top of the metal plate (510; 610; 710); an input port; an output port; a transmission conductor (520; 620; 720) being a conductive strip forming a transmission path between the input port and the output port; a sensing conductor (530; 630; 730) being a conductive strip on surface of the dielectric substrate (501; 601; 701), wherein a head end of the sensing conductor (530; 630; 730) is connected to a measurement port of the directional coupler (500; 600; 700) and tail end is connected to a termination resistor (550; 850) of the directional coupler (500; 600; 700); and a ground strip connected to the ground plane (510; 610; 710) to obtain directivity, wherein the ground strip is located next to the sensing conductor (530; 630; 730) on the side of the output port, and wherein the ground strip is connected to one end of said termination resistor (550; 850); the transmission conductor (520; 620; 720) and the ground strip are on a same surface of the dielectric substrate (501; 601; 701); characterized in that the electrical length of the sensing conductor (530; 630; 730) is smaller than an eight of the wavelength; a recess (505; 605) is formed in the ground plane below the transmission conductor (520; 620; 720); and another recess is formed in the ground plane below the sensing conductor (530; 630; 730) to improve directivity. a metal plate (510; 610; 710) functioning as a ground plane; a dielectric substrate (501; 601; 701) provided on top of the metal plate (510; 610; 710); an input port; an output port; a transmission conductor (520; 620; 720) being a conductive strip forming a transmission path between the input port and the output port; a sensing conductor (530; 630; 730) being a conductive strip on surface of the dielectric substrate (501; 601; 701), wherein a head end of the sensing conductor (530; 630; 730) is connected to a measurement port of the directional coupler (500; 600; 700) and tail end is connected to a termination resistor (550; 850) of the directional coupler (500; 600; 700); and a ground strip connected to the ground plane (510; 610; 710) to obtain directivity, wherein the ground strip is located next to the sensing conductor (530; 630; 730) on the side of the output port, and wherein the ground strip is connected to one end of said termination resistor (550; 850); the transmission conductor (520; 620; 720) and the ground strip are on a same surface of the dielectric substrate (501; 601; 701); characterized in that the electrical length of the sensing conductor (530; 630; 730) is smaller than an eight of the wavelength; a recess (505; 605) is formed in the ground plane below the transmission conductor (520; 620; 720); and another recess is formed in the ground plane below the sensing conductor (530; 630; 730) to improve directivity.
An inter-turbine duct of a gas turbine engine, t he duct comprising: an inter-turbine duct (180, 480) extending from a first outlet (162, 462) of a first turbine (160, 460) to a second inlet (172, 472) of a second turbine and configured to direct an air flow (232, 432) from the first turbine (160, 460) to the second turbine (170, 470), the inter-turbine duct (180, 480) having a first station (290, 490) with a first meridional area and a second station (292, 294, 492, 494) with a second meridional area, wherein the first station (290, 490) is upstream of the second station (292, 294, 492, 494), wherein the axial position, at which the meridional area ratio transitions from converging to diverging, is between 15% and 80% of the axial length, and wherein the second meridional area is less than to the first meridional area, wherein the first meridional area is calculated according to the following Equation: A M = 2 π * R M * h M where A M is the first meridional area; R M is a radius of the duct at the first station; and h M is a meridional height at the first station, wherein the meridional height (h M) is calculated according to the following Equation: h M = h S * cos Φ M − Φ S where h M is the meridional height at the first station; hs is a station height; Φ M is a meridional angle; and Φ S is a station angle. an inter-turbine duct (180, 480) extending from a first outlet (162, 462) of a first turbine (160, 460) to a second inlet (172, 472) of a second turbine and configured to direct an air flow (232, 432) from the first turbine (160, 460) to the second turbine (170, 470), the inter-turbine duct (180, 480) having a first station (290, 490) with a first meridional area and a second station (292, 294, 492, 494) with a second meridional area, wherein the first station (290, 490) is upstream of the second station (292, 294, 492, 494), wherein the axial position, at which the meridional area ratio transitions from converging to diverging, is between 15% and 80% of the axial length, and wherein the second meridional area is less than to the first meridional area, wherein the first meridional area is calculated according to the following Equation: A M = 2 π * R M * h M where A M is the first meridional area; R M is a radius of the duct at the first station; and h M is a meridional height at the first station, A M is the first meridional area; R M is a radius of the duct at the first station; and h M is a meridional height at the first station, wherein the meridional height (h M) is calculated according to the following Equation: h M = h S * cos Φ M − Φ S where h M is the meridional height at the first station; hs is a station height; Φ M is a meridional angle; and Φ S is a station angle. h M is the meridional height at the first station; hs is a station height; Φ M is a meridional angle; and Φ S is a station angle.
A rotation apparatus of a pole system for photovoltaic power generation installed at an upper end of a pole to rotate a solar panel array, the rotation apparatus comprising: a first tubular body connected to the solar panel array; a second tubular body coupled below the first tubular body and fixed to the upper end of the pole; a gear unit to transmit a rotating force to the first tubular body; and a driving motor to provide the rotating force to the gear unit; characterzed in that a contact part including at least three contact points is installed at a coupled part of the first tubular body and the second tubular body and held in contact during a relative rotation between the first tubular body and the second tubular body to transmit power or a signal, and in that the solar panel array includes a plurality of solar panels connected in series, wherein the contact part includes a first contact point, a second contact point and a third contact point, wherein two terminals of output of all the plurality of solar panels are connected to the first contact point and the second contact point, wherein two terminals of output of some of the plurality of solar panels are connected to the first contact point and the third contact point, and wherein an output power through the first contact point and the second contact point is supplied to a power inverter, and an output power through the first contact point and the third contact point is supplied to the driving motor. a first tubular body connected to the solar panel array; a second tubular body coupled below the first tubular body and fixed to the upper end of the pole; a gear unit to transmit a rotating force to the first tubular body; and a driving motor to provide the rotating force to the gear unit; characterzed in that a contact part including at least three contact points is installed at a coupled part of the first tubular body and the second tubular body and held in contact during a relative rotation between the first tubular body and the second tubular body to transmit power or a signal, and in that the solar panel array includes a plurality of solar panels connected in series, wherein the contact part includes a first contact point, a second contact point and a third contact point, wherein two terminals of output of all the plurality of solar panels are connected to the first contact point and the second contact point, wherein two terminals of output of some of the plurality of solar panels are connected to the first contact point and the third contact point, and wherein an output power through the first contact point and the second contact point is supplied to a power inverter, and an output power through the first contact point and the third contact point is supplied to the driving motor.
Calibration device for calibrating a bearing hole of a workpiece, in particular of an engine component such as a connecting rod, the device comprising calibration tools (50; 150) having on their outer circumference at least one calibration contour (52; 152), by means of which a bearing inner contour, serving as a bearing surface, of the bearing hole can be calibrated, wherein, for the calibration of the bearing hole, the at least one calibration contour (52; 152) is moved along the bearing inner contour by means of a feed movement (29a, 29b) along a calibration path, characterised in that the calibration tools (50, 150) comprise a first calibration tool (50a, 150a) and a second calibration tool (50b, 150b), and in that the device comprises a positioning device for positioning the workpiece and the calibration tools (50; 150) relative to one another in respect of the calibration path in such a way that the first calibration tool (50a; 150a) and the second calibration tool (50b, 150b) are moved into the bearing hole from opposite sides.
Method for detecting a deviation of a rotation rate signal of a sensor of a vehicle, which comprises the following steps: receiving information about a linear acceleration of the vehicle via a first interface; receiving the rotation rate signal via a second interface, the rotation rate signal representing a rotation rate of the vehicle; and analysing the rotation rate signal if the linear acceleration is less than a first threshold value (313, 315), in order to detect the deviation of the rotation rate signal. receiving information about a linear acceleration of the vehicle via a first interface; receiving the rotation rate signal via a second interface, the rotation rate signal representing a rotation rate of the vehicle; and analysing the rotation rate signal if the linear acceleration is less than a first threshold value (313, 315), in order to detect the deviation of the rotation rate signal.
Method for inputting parameters of a parameter field for controlling a system, wherein - the parameter field is first of all graphically represented in a first occupancy with parameters on a sensitive screen by means of dots, lines and/or areas, and wherein - the points, lines and/or areas are changed by touching the screen, with the result that the resulting parameter field represented has a second occupancy with parameters which differs from the first occupancy, and - parameters of the parameter field are represented by means of at least one line on the screen, characterized in that, when a touch region which is defined on account of touching on the screen is approached, this causes the line to be shifted in the distance direction from the touch region, such that the line is always at a defined minimum distance from the touch region. - the parameter field is first of all graphically represented in a first occupancy with parameters on a sensitive screen by means of dots, lines and/or areas, and wherein - the points, lines and/or areas are changed by touching the screen, with the result that the resulting parameter field represented has a second occupancy with parameters which differs from the first occupancy, and - parameters of the parameter field are represented by means of at least one line on the screen, characterized in that, when a touch region which is defined on account of touching on the screen is approached, this causes the line to be shifted in the distance direction from the touch region, such that the line is always at a defined minimum distance from the touch region.
An antibody conjugate, comprising an antibody that binds to a target, wherein the antibody is linked to a lytic domain, wherein said lytic domain comprises or consists of a peptide selected from KFAKFAKKFAKFAKK, KFAKFAKKFAKFAKKF, KFAKFAKKFAKFAKKFA, KFAKFAKKFAKFAKKFAK, KFAKFAKKFAKFAKKFAKF and KFAKFAKKFAKFAKKFAKFA; wherein the lytic domain is linked to a Heavy chain of the antibody, or linked to a Light chain of the antibody, and wherein said target is CD20.