Abstract: A flying body includes an observation data generation unit that generates observation data on the basis of radio waves received by a radar, an image generation unit that generates an image representing a monitoring space on the basis of the observation data generated by the observation data generation unit, and a detection unit that detects a detection target on the basis of the image generated by the image generation unit.

Abstract: An electro-optical device includes a first member having a translucent property, a second member having a translucent property and opposed to the first member with a space being disposed therebetween, and a plurality of pixel electrodes provided at an opposite side from the first member with respect to the second member. The first member includes a substrate body. The second member includes a transparent film. A plurality of lens surfaces having a protruding curved surface and each overlapping, in plan view, with corresponding one of the plurality of pixel electrodes are formed at a surface of the second member that is opposed to the first member. A pillar that extends through the space and is in contact with the first member and the second member is provided between the first member and the second member. The space can be formed by removing a sacrificial layer provided between the first member and the second member.

Abstract: An electro-optical device includes an electro-optical panel and a frame configured to support the electro-optical panel. The electro-optical panel includes a first member being a translucent substrate body, a second member being a translucent film and opposed to the first member, and pixel electrodes provided at an opposite side from the first member with respect to the second member. Lens surfaces having a protruding curved surface and each overlapping, in plan view, with each one of pixel electrodes are formed at a surface of the second member that is opposed to the first member. Since an inlet passage and an outlet passage, each of which communicates with the space, are formed between the first member and the second member, a refrigerant is caused to pass through the space by way of the frame, whereby it is possible to cool the electro-optical panel.

Abstract: An electro-optical device includes a base material as a substrate, a TFT as a transistor, a scanning line as a light shielding layer between the base material and the TFT, and a holding capacitor between the base material and the scanning line. The holding capacitor includes a first conductive layer, a second conductive layer provided on the first conductive layer via a first capacitor insulating layer, a third conductive layer electrically connected to the second conductive layer via a first contact hole provided in an insulating layer covering the second conductive layer, and a fourth conductive layer provided on the third conductive layer via a second capacitor insulating layer.

Abstract: A liquid crystal apparatus includes a scan line extending in a ±X direction, a data line extending in a ±Y direction that intersects with the ±X direction, a TFT having a semiconductor layer in which, at a position overlapping with the scan line in plan view, one source drain region and a channel region extend along the ±X direction, and at a position overlapping with the data line in plan view, another source drain region extends along the ±Y direction, and a first upper capacitance element and a second upper capacitance element provided at a position overlapping with the data line, so as to overlap with the other source drain region in plan view.

Abstract: A liquid crystal device as an electrooptical device includes a TFT as a transistor, a pixel electrode provided correspondingly to the TFT, a storage capacitor in which a first capacitance electrode, a capacitance insulating layer, and a second capacitance electrode are stacked in order, and a contact portion as a first contact portion configured to electrically connect a semiconductor layer of the TFT and the pixel electrode. In the liquid crystal device, the second capacitance electrode includes a first conductive layer and a second conductive layer stacked on the first conductive layer, and the contact portion is configured of the second conductive layer and is provided so as to be in contact with a drain region of the semiconductor layer.

Abstract: A plant facility apparatus recognition system is provided, which appropriately recognizes a plant facility apparatus even in a plant facility in which a wireless facility and a marker are not able to be installed even when the shape of the plant facility apparatus is different from or has been changed from design data. The plant facility apparatus recognition system that uses a mobile device having a camera to recognize the plant facility apparatus to be subjected to work in the plant facility includes a characteristic length acquirer that acquires information on the pipe as a first characteristic length from an image obtained by causing the camera to image the plant facility apparatus and the pipe existing near the plant facility apparatus, and a characteristic length comparator that compares the first characteristic length with a second characteristic length acquired from the design data and related to the pipe.

Abstract: A liquid crystal device as an electrooptical device includes a TFT as a transistor, a pixel electrode provided correspondingly to the TFT, a storage capacitor in which a first capacitance electrode, a capacitance insulating layer, and a second capacitance electrode are stacked in order, and a contact portion as a first contact portion configured to electrically connect a semiconductor layer of the TFT and the pixel electrode. In the liquid crystal device, the second capacitance electrode includes a first conductive layer and a second conductive layer stacked on the first conductive layer, and the contact portion is configured of the second conductive layer and is provided so as to be in contact with a drain region of the semiconductor layer.

Abstract: An electro-optical device includes a base material as a substrate, a TFT as a transistor, a scanning line as a light shielding layer between the base material and the TFT, and a holding capacitor between the base material and the scanning line. The holding capacitor includes a first conductive layer, a second conductive layer provided on the first conductive layer via a first capacitor insulating layer, a third conductive layer electrically connected to the second conductive layer via a first contact hole provided in an insulating layer covering the second conductive layer, and a fourth conductive layer provided on the third conductive layer via a second capacitor insulating layer.

Abstract: A flying body includes an observation data generation unit that generates observation data on the basis of radio waves received by a radar, an image generation unit that generates an image representing a monitoring space on the basis of the observation data generated by the observation data generation unit, and a detection unit that detects a detection target on the basis of the image generated by the image generation unit.

Abstract: An electro-optical device includes a substrate, a mirror support pillar extending in a direction in which the pillar intersects with a surface of the substrate, and a mirror that is so disposed as to be distanced from the substrate and to be capable of being displaced with respect to the mirror support pillar. The mirror has a reflective metal film, and a reflection enhancing lamination film that covers a portion including a surface and a side surface of the reflective metal film.

Abstract: A liquid crystal device as an electro-optical device includes a first insulating layer as a first layer with an insulating property stacked on a base member as a substrate, a trench provided in the first insulating layer for each pixel, a second insulating layer as a second layer stacked on the first insulating layer and having an aperture communicating with the trench, and a retention capacitor as a capacitance element including a first capacitance electrode, a first capacitance insulating film, and a second capacitance electrode which are provided on at least an inner side the trench and the aperture. A layer thickness of the first insulating layer is larger than a layer thickness of the second insulating layer, and a width of the trench is larger than a width of the aperture in the X direction as a first direction.

Abstract: A liquid crystal device as an electro-optical device includes a first insulating layer as a first layer with an insulating property stacked on a base member as a substrate, a trench provided in the first insulating layer for each pixel, a second insulating layer as a second layer stacked on the first insulating layer and having an aperture communicating with the trench, and a retention capacitor as a capacitance element including a first capacitance electrode, a first capacitance insulating film, and a second capacitance electrode which are provided on at least an inner side the trench and the aperture. A layer thickness of the first insulating layer is larger than a layer thickness of the second insulating layer, and a width of the trench is larger than a width of the aperture in the X direction as a first direction.

Abstract: An electro-optical device is capable of high quality images. An electro-optical device (200) includes a first capacitive element (491), a second capacitive element (492), and a third capacitive element (493). The first capacitive element (491) includes a first conductive film (408), a first part of a second conductive film (411), and a first dielectric film (410). The second capacitive element (492) includes a third conductive film (416), a second part of a fourth conductive film (418), and a second dielectric film (417). The third capacitive element (493) includes the third conductive film (416), a third part of the fourth conductive film (418), and the second dielectric film (417). Since a capacitive element that includes a large capacitance value is formed in a narrow region, even if the pixel becomes smaller as the definition is increased, it is possible to realize an excellent electro-optical device in which display defects are suppressed.

Abstract: A liquid crystal device which is used as an electro-optical device according to the present embodiment includes at least five capacitance electrodes that are stacked on a substrate in a state where dielectric films are interposed therebetween. Two capacitance electrodes which are stacked on odd-numbered layers among the at least five capacitance electrodes are electrically connected to a capacitance line through a contact hole that is a common contact hole.

Abstract: An electro-optical apparatus includes a semiconductor layer which is provided on a first substrate, a gate electrode which is provided on the semiconductor layer, a first light-shielding member which is provided between the semiconductor layer and the first substrate, a second light-shielding member which is provided in an extension direction of the first substrate in the semiconductor layer, and a third light-shielding member which is provided on an opposite side to the first substrate in the semiconductor layer, in which the second light-shielding member is embedded within a groove which is formed between the first light-shielding member and the third light-shielding member, and the third light-shielding member is electrically connected to the gate electrode and the first light-shielding member via the second light-shielding member.

Abstract: An electro-optical apparatus includes a first substrate, an interlayer insulation layer which is provided on the first substrate, and a groove which is provided on the interlayer insulation layer, in which a plurality of capacitors (a first capacitative element and a second capacitative element) which are laminated in order of a lower electrode, a lower dielectric film, an relay electrode, an upper dielectric film, and an upper electrode are formed inside the groove.

Abstract: A liquid crystal device which is used as an electro-optical device according to the present embodiment includes at least five capacitance electrodes that are stacked on a substrate in a state where dielectric films are interposed therebetween. Two capacitance electrodes which are stacked on odd-numbered layers among the at least five capacitance electrodes are electrically connected to a capacitance line through a contact hole that is a common contact hole.

Abstract: An electro-optical device is capable of high quality images. An electro-optical device (200) includes a first capacitive element (491), a second capacitive element (492), and a third capacitive element (493). The first capacitive element (491) includes a first conductive film (408), a first part of a second conductive film (411), and a first dielectric film (410). The second capacitive element (492) includes a third conductive film (416), a second part of a fourth conductive film (418), and a second dielectric film (417). The third capacitive element (493) includes the third conductive film (416), a third part of the fourth conductive film (418), and the second dielectric film (417). Since a capacitive element that includes a large capacitance value is formed in a narrow region, even if the pixel becomes smaller as the definition is increased, it is possible to realize an excellent electro-optical device in which display defects are suppressed.

Abstract: An electro-optical apparatus includes a semiconductor layer which is provided on a first substrate, a gate electrode which is provided on the semiconductor layer, a first light-shielding member which is provided between the semiconductor layer and the first substrate, a second light-shielding member which is provided in an extension direction of the first substrate in the semiconductor layer, and a third light-shielding member which is provided on an opposite side to the first substrate in the semiconductor layer, in which the second light-shielding member is embedded within a groove which is formed between the first light-shielding member and the third light-shielding member, and the third light-shielding member is electrically connected to the gate electrode and the first light-shielding member via the second light-shielding member.