Systems and methods for adjusting focal distances of images displayed to a user at a designated eye point of a simulator are provided. An image may be generated for display by a screen, wherein the image is reflected by a mirror to the designated eye point. A simulated distance from the designated eye point to an object in the image may be determined. A focal distance for the image may be determined based on the simulated distance. A simulated size of the object may be determined based on the simulated distance. An adjustor may alter a distance between the screen and the mirror to achieve the focal distance. A size of the object may be adjusted in the image based on the simulated size.

A VR training system includes: training terminals that generates simulation images for simulation training in common VR space and provides the simulation images to trainees individually associated with the training terminals; and a tracking sensor that detects motion of the trainees in real space. Each of the training terminals calculates a position and a posture of a self avatar in VR space based on a detection result of the tracking sensor, acquires position information on a position and a posture of another avatar in the VR space from another training terminal, and generates the another avatar in the VR space based on the acquired position information.

A control and simulation system (CSS) has a flight system configured to selectively provide flight mode of operation of an aircraft and a simulation system configured to selectively provide a simulation mode of operating the aircraft.

A control and simulation system (CSS) has a flight system configured to selectively provide flight mode of operation of an aircraft and a simulation system configured to selectively provide a simulation mode of operating the aircraft.

An apparatus for operating a simulator with a special impression of reality is provided. The apparatus is configured for learning how to control a vehicle moving in three-dimensional reality. Controllable systems for detecting human stress reactions are provided. The controllable systems may be configured for sensing the resistance of the skin and for detecting movements of persons and physiognomy.

An apparatus for operating a simulator with a special impression of reality is provided. The apparatus is configured for learning how to control a vehicle moving in three-dimensional reality. Controllable systems for detecting human stress reactions are provided. The controllable systems may be configured for sensing the resistance of the skin and for detecting movements of persons and physiognomy.

A simulator assistance method and system adaptively mitigates Pilot Induced Oscillations (PIOs) with respect to axes of rotation about the vehicle's center of mass. The method detects PIOs in a body rate signal by band pass filtering the body rate signal, and provides an adaptive response based on the amplitude of the body rate signal within the frequency band.

A simulator assistance method and system adaptively mitigates Pilot Induced Oscillations (PIOs) with respect to axes of rotation about the vehicle's center of mass. The method detects PIOs in a body rate signal by band pass filtering the body rate signal, and provides an adaptive response based on the amplitude of the body rate signal within the frequency band.

A vibration system for a simulator cockpit which includes at least one pilot seat. The vibration system comprises a vibration module for the pilot seat, the seat vibration module being composed of a platform having a top face to which the pilot seat is fixed and a bottom face to which a motor drive system is coupled. The motor drive system comprises independent mechanical means allowing the platform to be made to vibrate on three orthogonal axes, and is coupled to a control module configured to independently actuate each mechanical means and vary, in real time, the amplitude of the vibratory movements of the platform on each orthogonal axis.

A vibration system for a simulator cockpit which includes at least one pilot seat. The vibration system comprises a vibration module for the pilot seat, the seat vibration module being composed of a platform having a top face to which the pilot seat is fixed and a bottom face to which a motor drive system is coupled. The motor drive system comprises independent mechanical means allowing the platform to be made to vibrate on three orthogonal axes, and is coupled to a control module configured to independently actuate each mechanical means and vary, in real time, the amplitude of the vibratory movements of the platform on each orthogonal axis.