Abstract: A method for setting a target flight path of an aircraft in a physical environment, the method includes: displaying a virtual three-dimensional model corresponding to the physical environment; setting a start point in the virtual three-dimensional model according to a user input indicative of a position of the start point; continuously tracking a trajectory of a physical object moved in a space corresponding to the virtual three-dimensional model while displaying within the virtual three-dimensional model a continuous path corresponding to the trajectory of the physical object from the start point; setting an end point of the continuous path in the virtual three-dimensional model according to a user input indicative of a position of the end point; and generating the target flight path of the aircraft in the physical environment based on the continuous path from the start point to the end point in the virtual three-dimensional model.

Abstract: A method for setting a target flight path of an aircraft in a physical environment, the method includes: displaying a virtual three-dimensional model corresponding to the physical environment; setting a start point in the virtual three-dimensional model according to a user input indicative of a position of the start point; continuously tracking a trajectory of a physical object moved in a space corresponding to the virtual three-dimensional model while displaying within the virtual three-dimensional model a continuous path corresponding to the trajectory of the physical object from the start point; setting an end point of the continuous path in the virtual three-dimensional model according to a user input indicative of a position of the end point; and generating the target flight path of the aircraft in the physical environment based on the continuous path from the start point to the end point in the virtual three-dimensional model.

Abstract: An electro-optical device includes a mirror being positioned above a surface of a substrate and modulating light, and a torsion hinge being positioned between the mirror and the substrate and pivotably supporting the mirror. The electro-optical device includes beam portions being disposed between the mirror and the substrate at positions that do not overlap the mirror in plan view, and being supported by the substrate while being spaced away from the mirror and the substrate. Spring tips that regulate a pivot range of the mirror protrude from the beam portions toward positions that overlap the mirror in plan view.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.

Abstract: An electrooptical device of a projection display device includes a first driving element and a second driving element. The first driving element switches a position of a first mirror between a first turn-on position, in which the first mirror reflects a first light-source light beam from a first irradiation direction in an ON-direction, and a first turn-off position, in which the first mirror reflects the first light-source light beam in a first OFF-direction. The second driving element switches a position of a second mirror between a second turn-on position, in which the second mirror reflects a second light-source light beam in the ON-direction, and a second turn-off position, in which the second mirror reflects the second light-source light beam in a second OFF-direction.

Abstract: A projection-type display device includes a light source unit, an electro-optical device that modulates light emitted from the light source unit, and a projection optical system that projects the light modulated by the electro-optical device. In the electro-optical device, when a mirror that modulates light assumes an ON posture, the light from the light source unit is reflected in an ON direction toward the projection optical system and, when the mirror assumes an OFF posture, the light from the light source unit is reflected in an OFF direction different from the ON direction. An image capture element that receives incident light that has entered the projection-type display device from the outside via the projection optical system is provided in a direction in which the incident light is reflected by the mirror that assumes the OFF posture.

Abstract: A substrate, a plurality of mirrors disposed on one surface of the substrate to be separated from the substrate, a mirror support post disposed between the substrate and the mirror and connected to a part of the mirror to support the mirror, a first electrode disposed between a first portion of the mirror and the substrate on the substrate, a second electrode disposed between the substrate and a second portion facing the first portion are included. The mirror includes a thin portion in which a thickness of at least a part of an end portion of a rear surface of the mirror is thinner than a thickness of a middle of the mirror.

Abstract: An electrooptical device of a projection display device includes a first driving element and a second driving element. The first driving element switches a position of a first mirror between a first turn-on position, in which the first mirror reflects a first light-source light beam from a first irradiation direction in an ON-direction, and a first turn-off position, in which the first mirror reflects the first light-source light beam in a first OFF-direction. The second driving element switches a position of a second mirror between a second turn-on position, in which the second mirror reflects a second light-source light beam in the ON-direction, and a second turn-off position, in which the second mirror reflects the second light-source light beam in a second OFF-direction.

Abstract: A projection-type display device includes a light source unit, an electro-optical device that modulates light emitted from the light source unit, and a projection optical system that projects the light modulated by the electro-optical device. In the electro-optical device, when a mirror that modulates light assumes an ON posture, the light from the light source unit is reflected in an ON direction toward the projection optical system and, when the mirror assumes an OFF posture, the light from the light source unit is reflected in an OFF direction different from the ON direction. An image capture element that receives incident light that has entered the projection-type display device from the outside via the projection optical system is provided in a direction in which the incident light is reflected by the mirror that assumes the OFF posture.

Abstract: An electro-optical device includes a mirror being positioned above a surface of a substrate and modulating light, and a torsion hinge being positioned between the mirror and the substrate and pivotably supporting the mirror. The electro-optical device includes beam portions being disposed between the mirror and the substrate at positions that do not overlap the mirror in plan view, and being supported by the substrate while being spaced away from the mirror and the substrate. Spring tips that regulate a pivot range of the mirror protrude from the beam portions toward positions that overlap the mirror in plan view.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.

Abstract: A substrate, a plurality of mirrors disposed on one surface of the substrate to be separated from the substrate, a mirror support post disposed between the substrate and the mirror and connected to a part of the mirror to support the mirror, a first electrode disposed between a first portion of the mirror and the substrate on the substrate, a second electrode disposed between the substrate and a second portion facing the first portion are included. The mirror includes a thin portion in which a thickness of at least a part of an end portion of a rear surface of the mirror is thinner than a thickness of a middle of the mirror.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.

Abstract: An electro-optical device includes an insulating film having a tilted face, the tilted face sloping down toward inside of an opening area of a pixel arranged in a pixel area in plan view, and a pixel electrode that is disposed in the pixel on an upper layer side relative to the insulating film and is formed so as to include at least an area that overlaps the tilted face of the insulating film in plan view.

Abstract: An electro-optical device comprises: a first data line extending in a first direction; a second data line extending in the first direction and arranged so as to be at least partially overlapped with the first data line; a first scanning line and a second scanning line extending in a second direction intersecting the first direction; a first transistor electrically connected to the first data line and electrically connected to the first scanning line; a first pixel electrode electrically connected to the first transistor; a second transistor electrically connected to the second data line and electrically connected to the second scanning line; and a second pixel electrode electrically connected to the second transistor.

Abstract: A capacitor element includes a lower conductive portion, an underlying film which covers the lower conductive portion, a lower electrode formed on the underling film, a capacitor insulating film including (i) a dielectric film formed on the lower electrode and (ii) a protective film formed on the dielectric film and having a lower etching rate than that of the dielectric film, and an upper electrode formed on the capacitor insulating film. The upper electrode and the lower conductive portion are electrically connected to each other through a connection portion exposed from the underlying film by partially removing the underlying film and the capacitor insulating film.

Abstract: An electro-optical device comprises: a first data line extending in a first direction; a second data line extending in the first direction and arranged so as to be at least partially overlapped with the first data line; a first scanning line and a second scanning line extending in a second direction intersecting the first direction; a first transistor electrically connected to the first data line and electrically connected to the first scanning line; a first pixel electrode electrically connected to the first transistor; a second transistor electrically connected to the second data line and electrically connected to the second scanning line; and a second pixel electrode electrically connected to the second transistor.

Abstract: An electro-optical device includes a first light shielding film; a transistor element formed on the first light shielding film to overlap the first light shielding film; a second light shielding film formed on the transistor element to overlap the transistor element and electrically connected to an input terminal of the transistor element; a transparent conductive film extended toward an upper layer side of the second light shielding film in an opening region, through which light penetrates, of the display region; a dielectric film formed on the transparent conductive film in the opening region; and a transparent pixel electrode formed on the dielectric film in the opening region, constituting a storage capacitor together with the transparent conductive film and the dielectric film, and having a transparent pixel electrode which is electrically connected to the transistor element.