Abstract: To improve actual coating efficiency, the present invention has a coating robot provided with a coating unit configured by a plurality of rotary atomizing type electrostatic coating machines horizontally arranged, and a coating control apparatus that controls the coating unit and the coating robot. A diameter of each of bells is 50 mm or less. The coating material discharge amount of each rotary atomizing type electrostatic coating machine is 400 cc/min or less. A coating distance between each bell and a surface to be coated of a workpiece is controlled between 50 mm to 150 mm. The coating material discharge amounts of the plurality of electrostatic coating machines are controlled for the respective coating machines. The control of the coating material discharge amounts includes a pause of coating material discharge.

Abstract: A device may be configured to provide a graphical user interface that is specifically designed for use in a person's non-foveal vision. Via a graphical user interface for non-foveal vision, a user may interact with the device without focusing his or her foveal vision on a touchscreen of the device. Thus, the user may operate the device and its applications entirely and exclusively without using his or her foveal vision. For example, the user may operate the device exclusively using his or her peripheral vision or using no vision whatsoever.

Abstract: A device may be configured to provide a graphical user interface that is specifically designed for use in a person's non-foveal vision. Via a graphical user interface for non-foveal vision, a user may interact with the device without focusing his or her foveal vision on a touchscreen of the device. Thus, the user may operate the device and its applications entirely and exclusively without using his or her foveal vision. For example, the user may operate the device exclusively using his or her peripheral vision or using no vision whatsoever.

Abstract: A device may be configured to provide a graphical user interface that is specifically designed for use in a person's non-foveal vision. Via a graphical user interface for non-foveal vision, a user may interact with the device without focusing his or her foveal vision on a touchscreen of the device. Thus, the user may operate the device and its applications entirely and exclusively without using his or her foveal vision. For example, the user may operate the device exclusively using his or her peripheral vision or using no vision whatsoever.

Abstract: To improve actual coating efficiency, the present invention has a coating robot provided with a coating unit configured by a plurality of rotary atomizing type electrostatic coating machines horizontally arranged, and a coating control apparatus that controls the coating unit and the coating robot. A diameter of each of bells is 50 mm or less. The coating material discharge amount of each rotary atomizing type electrostatic coating machine is 400 cc/min or less. A coating distance between each bell and a surface to be coated of a workpiece is controlled between 50 mm to 150 mm. The coating material discharge amounts of the plurality of electrostatic coating machines are controlled for the respective coating machines. The control of the coating material discharge amounts includes a pause of coating material discharge.

Abstract: A device may be configured to provide a graphical user interface that is specifically designed for use in a person's non-foveal vision. Via a graphical user interface for non-foveal vision, a user may interact with the device without focusing his or her foveal vision on a touchscreen of the device. Thus, the user may operate the device and its applications entirely and exclusively without using his or her foveal vision. For example, the user may operate the device exclusively using his or her peripheral vision or using no vision whatsoever.

Abstract: An electronic device according to the present invention includes: a casing; a containing chamber that is recessed in the casing and configured to contain a component therein; an openable cover that is configured to cover the containing chamber and includes a turnable cover body pivotally supported on the casing, a stopper engaged with a rear face of the cover body, and a slide piece being held between the cover body and the stopper and having an operating portion exposed on a front face of the cover body, the cover being locked at a closure position by a slide operation of the slide piece; and a stopper piece that is configured to project to and retreat from the containing chamber, and is located facing a rear face of the stopper, thus inhibiting the component from falling out.

Abstract: A color cathode ray tube has a phosphor screen and an electron gun. The electron gun includes an electron beam generating section for emitting three in-line electron beams toward the phosphor screen and an electron beam focusing section for focusing the electron beams onto the phosphor screen. The electron beam focusing section includes at least one cup-shaped electrode having a tubular portion and a flange formed continuously from the tubular portion. The tubular portion has a generally rectangular cross section having an outwardly curved portion at each side thereof in a direction of arrangement of the three in-line electron beams in a plane perpendicular to the color cathode ray tube axis, the flange has a generally rectangular cross section having an outwardly curved portion at each side thereof in the direction of arrangement of the electron beams in the plane perpendicular to the color cathode ray tube axis, and the flange is formed with a locally thinned-down portion.

Abstract: A color cathode ray tube has a phosphor screen and an electron gun. The electron gun includes an electron beam generating section for emitting three in-line electron beams toward the phosphor screen and an electron beam focusing section for focusing the electron beams onto the phosphor screen. The electron beam focusing section includes at least one cup-shaped electrode having a tubular portion and a flange formed continuously from the tubular portion. The tubular portion has a generally rectangular cross section having an outwardly curved portion at each side thereof in a direction of arrangement of the three in-line electron beams in a plane perpendicular to the color cathode ray tube axis, the flange has a generally rectangular cross section having an outwardly curved portion at each side thereof in the direction of arrangement of the electron beams in the plane perpendicular to the color cathode ray tube axis, and the flange is formed with a locally thinned-down portion.

Abstract: A driver circuit wherein a first switching element and a second switching element are totem-pole-connected, wherein the totem pole connection is connected at its one end, node and other end with a power source, an output to a load and a reference potential, respectively, wherein the first switching element is connected between the one end and the node, wherein the second switching element is connected between the node and the other end, and wherein a third switching element is connected between the one end of the totem pole connection and the control terminal of the first switching element.

Abstract: In an electron gun for a cathode ray tube in which a focus electrode group includes a single platelike electrode having three apertures arrayed in one plane and a thickness equal to a depth of each of the three apertures, a tapered surface is formed on the entrance side and/or exit side of each of the three apertures, the tapered surface having a diameter larger than the aperture diameter and having a linear or curved shape in cross section, and a step which extends in the direction of the depth is formed around an aperture periphery of the tapered surface. With this constitution, the concentricity between each of the tapered surfaces and a respective one of the apertures can be measured with high precision on the basis of the boundary between each of the tapered surfaces and the corresponding one of the steps, thereby improving the precision of measurement of the concentricity between each of the apertures formed in the platelike electrode and the tapered surface formed around the aperture periphery.

Abstract: A lateral-type semiconductor device is provided in which a p-emitter layer and a p-collector layer are formed on the exposed-surface side of an n-base layer. The exposed surfaces of the p-emitter layer and the n-base layer are substantially surrounded by the exposed surface of the p-collector layer. The n-base layer is connected to a base electrode or through a first heavily-doped region extending from under the n-base region to an exposed surface area on the outer-periphery side of the p-collector layer. In an alternative embodiment a second heavily-doped region for connecting the n-base layer and the first heavily-doped region can be provided.