A system and method for automating installation of prefabricated parts at a construction site includes retrieving an installation plan for a room in which a plurality of parts are installed. The method also includes determining an orientation of the room based on one or more images captured for the room and scanning a first visual indicator on a first part from the plurality of parts, the visual indicator indicating a first order position in the installation order. The method includes determining a first installation location in the room based on the first order position and the installation plan. The method also includes displaying an installation graphic at the first installation location in the room, the installation graphic illustrating a spatial position and an alignment for the first part.

A projection display apparatus includes a processing circuit and an image projection display device. The processing circuit is configured to perform a dynamic motion compensation based on two successive first frame and second frame in a first video signal, in order to generate a complement frame between the first frame and the second frame. The processing circuit is further configured to combine the first frame and the complement frame into a third frame, and to decompose the third frame to generate a plurality of fourth frames and to output the fourth frames as a second video signal. A resolution of the first video signal is higher than a resolution of the second video signal. The image projection display device is configured to project and display the second video signal, in which the imaging device has an original resolution equal to the resolution of the second video signal.

A waveguide display system may include an eyepiece waveguide that can have a first surface and a second surface, the waveguide including an incoupling diffractive optical element (DOE) and an outcoupling DOE. The waveguide display system may include a light source and a scanning mirror, and may include reflective and collimating optical elements. The incoupling DOE can be configured to selectively propagate incident light beams to the outcoupling DOE in the waveguide through total internal reflection (TIR).

An imaging system including infrared light source, imaging unit and processor. Imaging unit includes first and second image-sensor chips, semi-transparent reflective element, infrared filter arranged to block transmission of infrared light towards first image-sensor chip, and means for transmitting infrared light received from overlapping field of view towards second image-sensor chip, whilst blocking transmission of infrared light received from non-overlapping field of view towards second image-sensor chip. First and second image-sensor chips are controlled to capture first and second images of real-world environment, wherein portion of second image-sensor chip that receives infrared light from overlapping field of view captures depth information pertaining to overlapping field of view. Extended-reality image is generated from first and second images, based on depth information.

A projection display apparatus includes a processing circuit and an image projection display device. The processing circuit is configured to perform a dynamic motion compensation based on two successive first frame and second frame in a first video signal, in order to generate a complement frame between the first frame and the second frame. The processing circuit is further configured to combine the first frame and the complement frame into a third frame, and to decompose the third frame to generate a plurality of fourth frames and to output the fourth frames as a second video signal. A resolution of the first video signal is higher than a resolution of the second video signal. The image projection display device is configured to project and display the second video signal, in which the imaging device has an original resolution equal to the resolution of the second video signal.

There is provided an information processing apparatus including an emission unit for emitting a projection image onto a subject, which is to be photographed, so as to allow the subject to perform a predetermined operation, a recognizing unit for recognizing operation performed by the subject, and an execution unit for executing a predetermined processing according to the operation of the subject that is recognized by the recognizing unit.

A system and method for automating installation of prefabricated parts at a construction site includes retrieving an installation plan for a room in which a plurality of parts are installed. The method also includes determining an orientation of the room based on one or more images captured for the room and scanning a first visual indicator on a first part from the plurality of parts, the visual indicator indicating a first order position in the installation order. The method includes determining a first installation location in the room based on the first order position and the installation plan. The method also includes displaying an installation graphic at the first installation location in the room, the installation graphic illustrating a spatial position and an alignment for the first part.

There is provided an information processing apparatus including an emission unit for emitting a projection image onto a subject, which is to be photographed, so as to allow the subject to perform a predetermined operation, a recognizing unit for recognizing operation performed by the subject, and an execution unit for executing a predetermined processing according to the operation of the subject that is recognized by the recognizing unit.

A projector to project a pattern on a surface of an aircraft. The projector includes software configured to read a pattern, and a projector configured to project the read pattern onto the surface of the aircraft. The pattern is a map of structural images corresponding to the structural components mounted behind the skin of the aircraft, such as a fuselage, and frame references corresponding to predetermined visible points on the skin of the aircraft. The frame references are aligned with the predetermined visible points of the fuselage to match the pattern with the aircraft and the structural items are identified based on the structural references.

An imaging system includes an image realisation device, and projection optics for rendering a display image on a display screen. The image realisation device includes an image realisation surface and a light structuring device having a surface with a first and second region. The light structuring device simulates a first lens on the first region of the surface. A first source image formed on a first region of the image realisation surface and projected through the projection optics renders a first display image on the display screen at a first apparent depth. The light structuring device simulates a second lens on the second region of the surface. A second source image formed on a second region of the image realisation surface and projected through the projection optics renders a second display image on the display screen at a second apparent depth. The first and second lens are independently configurable.