mhurhangee/ep-ind-claims huggingface dataset:
Device for offline inspection and color measurement of printed sheets for the production of banknotes and like printed securities, comprising: - a console having a supporting surface for supporting a sample printed sheet; - a multipurpose measuring apparatus, which multipurpose measuring apparatus comprises multiple sensors (22, 23) including at least one camera for taking images of selected portions of the sample printed sheet and a color measurement sensor for performing spectrophotometric, colorimetric, and/or densitometric measurements at selected locations on the sample printed sheet; - a display for displaying the images taken by the camera and the measurements performed by the color measurement sensor; and - a control and processing unit coupled to the multipurpose measuring apparatus and the display, wherein the device comprises a moveable sensor beam housing the multipurpose measuring apparatus, which moveable sensor beam is displaceable along an x-axis over the supporting surface of the console and over the entire surface of the sample printed sheet located on the supporting surface, the multiple sensors (22, 23) being mounted on a common sensor head which is displaceable within the moveable sensor beam along a y-axis so that the multipurpose measuring apparatus can selectively take images of selected portions of the sample printed sheet by means of the camera or perform measurements at selected locations on the sample printed sheet by means of the color measurement sensor, wherein the control and processing unit is configured to control displacement of the moveable sensor beam along the x-axis and of the sensor head along the y-axis, wherein the camera is capable of taking images of selected portions of the sample printed sheet under white visible light, under infrared light, and under ultraviolet light, an operating mode of the camera being switchable selectively between a visible light operating mode, an infrared operating mode, and an ultraviolet operating mode (Figures 5f-5k), and wherein the multipurpose measuring apparatus further comprises multiple light sources (24, 25, 26) which are activated individually in dependence of the operating mode of the camera, including a first light source for illuminating the sample printed sheet with white light, a second light source for illuminating the sample printed sheet with infrared light, and a third light source for illuminating the sample printed sheet with ultraviolet light.. - a console having a supporting surface for supporting a sample printed sheet; - a multipurpose measuring apparatus, which multipurpose measuring apparatus comprises multiple sensors (22, 23) including at least one camera for taking images of selected portions of the sample printed sheet and a color measurement sensor for performing spectrophotometric, colorimetric, and/or densitometric measurements at selected locations on the sample printed sheet; - a display for displaying the images taken by the camera and the measurements performed by the color measurement sensor; and - a control and processing unit coupled to the multipurpose measuring apparatus and the display,
A flexible air supply damper system comprising: a fluid supply unit supplying a fluid; a heating unit heating the fluid supplied through the fluid supply unit; a drying unit configured for drying an electrode plate while receiving the fluid heated through the heating unit; a damper unit splitting the fluid passing through the heating unit to control an amount of the fluid to be introduced into the drying unit; and a discharge unit through which the fluid used in the drying unit and the fluid split out of the damper unit are discharged, wherein the damper unit is positioned between the heating unit and the drying unit, thereby keeping an amount of the fluid to be supplied to the heating unit constant, and wherein the discharge unit includes a discharge means discharging the fluid, a first discharge passage allowing the damper unit and the discharge means to communicate with each other by bypassing the drying unit, and a second discharge passage allowing the drying unit and the discharge means to communicate with each other, the fluid used in the drying unit is discharged through the second discharge passage and the fluid split from the damper unit is discharged through the first discharge passage. a fluid supply unit supplying a fluid; a heating unit heating the fluid supplied through the fluid supply unit; a drying unit configured for drying an electrode plate while receiving the fluid heated through the heating unit; a damper unit splitting the fluid passing through the heating unit to control an amount of the fluid to be introduced into the drying unit; and a discharge unit through which the fluid used in the drying unit and the fluid split out of the damper unit are discharged, wherein the damper unit is positioned between the heating unit and the drying unit, thereby keeping an amount of the fluid to be supplied to the heating unit constant, and wherein the discharge unit includes a discharge means discharging the fluid, a first discharge passage allowing the damper unit and the discharge means to communicate with each other by bypassing the drying unit, and a second discharge passage allowing the drying unit and the discharge means to communicate with each other, the fluid used in the drying unit is discharged through the second discharge passage and the fluid split from the damper unit is discharged through the first discharge passage.
A method of determining blood glucose concentration with a glucose measurement system that includes a test strip and test meter, the test meter having a microcontroller configured to apply a plurality of test voltages to the test strip and measure a current transient output resulting from an electrochemical reaction in a test chamber of the test strip, the method comprising: initiating a test sequence after deposition of a sample; transforming glucose in the sample from one form to a different form; switching a first voltage to a second voltage different than the first voltage; changing the second voltage to a third voltage different from the second voltage; measuring a first current output of the current transient from the electrodes (64, 66) at least at any point during and after the switching from the first voltage to the second voltage; measuring a second current output of the current transient at least at any point during and after the third voltage is maintained in the test chamber; and calculating a blood glucose concentration utilizing an equation of the form: G = I T + S L ∗ log k I 1 I 2 I 2 where G is representative of glucose concentration I T comprises an intercept resulting from linear regression analysis of a batch of test strips; S L comprises a slope resulting from linear regression analysis of a batch of test strips; I 1 comprises a first current output measured from the current transient at any time point from about 1 seconds to about 4 seconds from a start of the test sequence; I 2 comprises a second current output measured from the current transient at any time point from about 4 seconds to about 5 seconds from the start of the test sequence; and k comprises a coefficient from about 1 to about 4. initiating a test sequence after deposition of a sample; transforming glucose in the sample from one form to a different form; switching a first voltage to a second voltage different than the first voltage; changing the second voltage to a third voltage different from the second voltage; measuring a first current output of the current transient from the electrodes (64, 66) at least at any point during and after the switching from the first voltage to the second voltage; measuring a second current output of the current transient at least at any point during and after the third voltage is maintained in the test chamber; and where G is representative of glucose concentration I T comprises an intercept resulting from linear regression analysis of a batch of test strips; S L comprises a slope resulting from linear regression analysis of a batch of test strips; I 1 comprises a first current output measured from the current transient at any time point from about 1 seconds to about 4 seconds from a start of the test sequence; I 2 comprises a second current output measured from the current transient at any time point from about 4 seconds to about 5 seconds from the start of the test sequence; and k comprises a coefficient from about 1 to about 4.
A method comprising: installing a printer structure onto a replication fixture by mating a structural feature of the printer structure with a first structural feature of the replication fixture, and a mechanical interface component onto the replication fixture by mating a structural feature of the mechanical interface component with a second structural feature of the replication fixture, wherein the replication fixture holds the printer structure and the mechanical interface component in a predetermined arrangement, wherein the predetermined arrangement establishes a gap between the printer structure and the at least one mechanical interface component; and filling the gap between the printer structure and the at least one mechanical interface component with a connection media; curing the connection media to form a print head mounting structure from the printer structure and the mechanical interface component; removing the print head mounting structure from the replication fixture; and installing a print head within the print head mounting structure by mating a structure feature of the print head with the structural feature of the printer structure or the structural feature of the mechanical interface component. installing a printer structure onto a replication fixture by mating a structural feature of the printer structure with a first structural feature of the replication fixture, and a mechanical interface component onto the replication fixture by mating a structural feature of the mechanical interface component with a second structural feature of the replication fixture, wherein the replication fixture holds the printer structure and the mechanical interface component in a predetermined arrangement, wherein the predetermined arrangement establishes a gap between the printer structure and the at least one mechanical interface component; and wherein the replication fixture holds the printer structure and the mechanical interface component in a predetermined arrangement, wherein the predetermined arrangement establishes a gap between the printer structure and the at least one mechanical interface component; and filling the gap between the printer structure and the at least one mechanical interface component with a connection media; curing the connection media to form a print head mounting structure from the printer structure and the mechanical interface component; removing the print head mounting structure from the replication fixture; and installing a print head within the print head mounting structure by mating a structure feature of the print head with the structural feature of the printer structure or the structural feature of the mechanical interface component.
A transmission device to divide the torque between two coaxial gears (14,15), in particular for a planetary gear train for aeronautical applications, the device comprising a motion input member and a first and a second transmission member (36,37), which are coaxial to each other and to said motion input member along a longitudinal axis and comprise: - a first and, respectively, a second shaft (38,39) having a first gear and, respectively, a second gear at an axial end; - a first and, respectively, a second flange (50, 51), which project radially outwards from said first and second shaft, at the opposite axial end with respect to said first and second gear (14,15), are axially facing and arranged abutting against each other, and are fixed to said motion input member so as to divide the torque transmitted by said motion input member between said first and second flange; at least said second shaft being axially hollow; said first shaft comprising a first intermediate portion having an outside diameter smaller than the inside diameter of said second shaft and housed at least with radial clearance (G 1) in said second shaft; characterized in that said first and second flange (50, 51) comprise respective portions (52, 53) configured so as to deform under the action of forces acting between said motion input member and said first and second gear (14, 15) so as to enable a fluctuation, within a predetermined maximum deflection, of said first and second shaft (38, 39) with respect to an axis perpendicular to said axis. - a first and, respectively, a second shaft (38,39) having a first gear and, respectively, a second gear at an axial end; - a first and, respectively, a second flange (50, 51), which project radially outwards from said first and second shaft, at the opposite axial end with respect to said first and second gear (14,15), are axially facing and arranged abutting against each other, and are fixed to said motion input member so as to divide the torque transmitted by said motion input member between said first and second flange;
A method, comprising: providing, by a slave device and to a master device, a first message that includes a first request for a first type of clock synchronization message and a second request for a second request for a second type of clock synchronization message, the first type of clock synchronization message being different from the second type of clock synchronization message; receiving, by the slave device and from the master device and based on the first message, a second message that grants the first request and the second request; and providing, by the slave device and to the master device, a third message that instructs the master device to provide a set of clock synchronization messages, the set of clock synchronization messages including the first type of clock synchronization message and the second type of clock synchronization message; receiving, by the slave device and from the master device, the set of clock synchronization messages to permit the slave device to synchronize a slave clock with a master clock of the master device. providing, by a slave device and to a master device, a first message that includes a first request for a first type of clock synchronization message and a second request for a second request for a second type of clock synchronization message, the first type of clock synchronization message being different from the second type of clock synchronization message; receiving, by the slave device and from the master device and based on the first message, a second message that grants the first request and the second request; and providing, by the slave device and to the master device, a third message that instructs the master device to provide a set of clock synchronization messages, the set of clock synchronization messages including the first type of clock synchronization message and the second type of clock synchronization message; receiving, by the slave device and from the master device, the set of clock synchronization messages to permit the slave device to synchronize a slave clock with a master clock of the master device.
Screening device for screening pulp suspensions, which screening device comprises a screening cylinder and a rotor located and rotating inside the screening cylinder, in which screening device the screening cylinder is cylindrical and its surface comprises apertures for passing through accept of the pulp suspension during screening, in which screening device the rotor for rotating the pulp suspension in a screening space located between an inner surface of the screening cylinder and an outer surface of the rotor comprises a cylindrical rotor body and a hub, in which screening device in the screening space foils are located, in which the rotor of the screening device comprises circular elements welded or otherwise fixedly attached to the cylindrical rotor body on its outer surface and foil arms, which foils are detachably attached to the foil arms, characterized in that between the foils and an attachment surface of the foil arms adjustable adjustment components are located, by which distance between outer surface of the attachment surface of the foil arms and the inner surface of the screening cylinder of the screening device is adjustable and the distance between the outer surface of the attachment surface of the foil arms and the inner surface of the screening cylinder of the screening device is 45-85 mm, preferably 55 -75 mm and that the foil arms are formed on the circular elements as low protrusions such, that height of the foil arms is 15-35% of the distance between the outer surface of the attachment surface of the foil arms and the inner surface of the screening cylinder of the screening device.
A display device comprising: a substrate comprising a display area in which a display element (OLED) is arranged; a first type thin-film transistor arranged in the display area and comprising a first semiconductor layer including silicon semiconductor and a first gate electrode insulated from the first semiconductor layer; a first interlayer insulating layer covering the first gate electrode; a second type thin-film transistor arranged on the first interlayer insulating layer and comprising a second semiconductor layer including oxide semiconductor and a second gate electrode (G4b) insulated from the second semiconductor layer; a second interlayer insulating layer covering the second gate electrode (G4b); a first power supply voltage line arranged on the second interlayer insulating layer; a first planarization layer covering the first power supply voltage line; and a data line arranged on the first planarization layer and at least partially overlapping the first power supply voltage line, and a second power supply voltage line arranged on the first planarization layer, electrically connected to the first power supply voltage line and overlaps the second semiconductor layer of the second type thin-film transistor in a plan view. a substrate comprising a display area in which a display element (OLED) is arranged; a first type thin-film transistor arranged in the display area and comprising a first semiconductor layer including silicon semiconductor and a first gate electrode insulated from the first semiconductor layer; a first interlayer insulating layer covering the first gate electrode; a second type thin-film transistor arranged on the first interlayer insulating layer and comprising a second semiconductor layer including oxide semiconductor and a second gate electrode (G4b) insulated from the second semiconductor layer; a second interlayer insulating layer covering the second gate electrode (G4b); a first power supply voltage line arranged on the second interlayer insulating layer; a first planarization layer covering the first power supply voltage line; and a data line arranged on the first planarization layer and at least partially overlapping the first power supply voltage line, and a second power supply voltage line arranged on the first planarization layer, electrically connected to the first power supply voltage line and overlaps the second semiconductor layer of the second type thin-film transistor in a plan view.
An electronic device (100; 100M) comprising: a top panel with an operation surface; a coordinate detection unit configured to detect coordinates of operational input performed on the operation surface; a vibrating element configured to generate vibration on the operation surface; a drive control unit configured to drive the vibrating element with a drive signal that generates natural vibration in an ultrasonic band on the operation surface, whereby the vibrating element is driven so that intensity of the natural vibration changes depending on a position of the operational input on the operation surface and a degree of temporal change in the position; and a reflecting unit (180; 180M) disposed on the operation surface side of the top panel and having a reflective surface (180A; 180AM) that is configured to reflect ultrasonic waves radiated from the top panel, characterized in that, when a wavelength of a standing wave generated in the top panel by the natural vibration is λp, a wavelength of an ultrasonic wave in the air at a frequency in the ultrasonic band of the drive signal is λa, an angle that satisfies cos θ = λa/λp is θ, and N is an arbitrary positive integer, an angle formed by the reflective surface and the operation surface is within a range from (90 - (θ + 2.5)) degrees to (90 - (θ - 2.5)) degrees, and a distance PQ from a position P of an antinode of the natural vibration to a point Q lowered perpendicularly to the reflective surface is within a range from (λa/2) × (N + 1/2) - λa/8 to (λa/2) × (N + 1/2) + λa/8. a top panel with an operation surface; a coordinate detection unit configured to detect coordinates of operational input performed on the operation surface; a vibrating element configured to generate vibration on the operation surface; a drive control unit configured to drive the vibrating element with a drive signal that generates natural vibration in an ultrasonic band on the operation surface, whereby the vibrating element is driven so that intensity of the natural vibration changes depending on a position of the operational input on the operation surface and a degree of temporal change in the position; and a reflecting unit (180; 180M) disposed on the operation surface side of the top panel and having a reflective surface (180A; 180AM) that is configured to reflect ultrasonic waves radiated from the top panel, characterized in that, when a wavelength of a standing wave generated in the top panel by the natural vibration is λp, a wavelength of an ultrasonic wave in the air at a frequency in the ultrasonic band of the drive signal is λa, an angle that satisfies cos θ = λa/λp is θ, and N is an arbitrary positive integer, an angle formed by the reflective surface and the operation surface is within a range from (90 - (θ + 2.5)) degrees to (90 - (θ - 2.5)) degrees, and a distance PQ from a position P of an antinode of the natural vibration to a point Q lowered perpendicularly to the reflective surface is within a range from (λa/2) × (N + 1/2) - λa/8 to (λa/2) × (N + 1/2) + λa/8.
Fluid conduit element, comprising a metallic annularly corrugated hose and a connecting component (3, 4) for connection to further elements of a fluid conduit, on which annularly corrugated hose there is formed a first and a second connection end, on each of which connection ends (2a, 2b) there is arranged a connecting component (3, 4) for connection to further elements of a fluid conduit, at least one of the connecting components being in the form of a connection part, preferably a rotary connection part, which connection part has been inserted by an insertion end into the annularly corrugated hose at the relevant connection end, the connection part having at the insertion end a tapered portion which slopes conically towards its free end, characterised in that a soldering agent, preferably a solder paste or solder ring, has been introduced into an inner corrugation of the annularly corrugated hose in the insertion region of the connection part, and the annularly corrugated hose and the connection part have been material-bonded by means of a soldered connection, preferably continuously around the circumference.