Instead of creating an image on a flat screen, Intelligent Material can create visible points of light inside a transparent medium. Multiple infrared beams address the material in three dimensions so the light appears where the excitation conditions intersect.
The display medium can remain visually transparent until the correct optical excitation reaches a selected location. The system then scans those locations through the volume to build a three-dimensional image that can be viewed without a conventional flat panel.
Disperse very small Intelligent Material crystals in a transparent medium so the bulk volume remains visually clear.
Use controlled laser paths, timing and power to excite selected material populations inside the volume.
The desired visible emission appears at the addressed location where the required excitation conditions are met.
Move the excitation coordinates rapidly through space to form shapes, structures, markers and multicolor data.
IMS has demonstrated image formation using dual optical excitation through perpendicular projection paths. The larger system concept extends that same principle into a transparent three-dimensional volume.
The laboratory setup demonstrates spatially controlled visible emission from Intelligent Material when the optical excitation conditions are correctly combined.

Different material compositions can produce different visible colors under infrared excitation. The development concept combines red, green and blue emission pathways and can also use multi-activator materials to broaden the available spectral palette.

The key is not simply the laser scanner. The optical medium has to be engineered so it is small enough to remain transparent, bright enough to be read clearly, and spectrally designed around the excitation architecture.
Control of crystal size and morphology lets the material be designed for dispersion in a clear liquid or other host while minimizing visible scattering.
Engineer the physical particle for the optical volume.Shell engineering can isolate the optically active region from the surrounding environment and improve useful emission from small crystals.
Brightness is a materials problem as much as an optics problem.Rare-earth composition, concentration and multiple activators can be selected around the wavelengths, colors and excitation sequence needed by the display system.
Custom material instead of one fixed display chemistry.The original IMS concept was built around data visualization rather than entertainment alone. The display volume can represent structures, moving objects and data layers using different colors and spatial positions.
Recreate a compound, building outline, hallways or rooms as transparent volumetric geometry.
Overlay color-coded points or objects within a larger three-dimensional structure.
Represent moving assets in true volumetric space rather than on a flat map.
Render mountainous or complex geographic data where depth and elevation are part of the information.
Assign color, position and motion to different data classes so relationships become spatially visible.
Build the materials, excitation wavelengths and software around a company's specific three-dimensional data problem.
IMS's development plan separates the problem into manageable stages: prove clear monochrome spatial imaging first, then add color, faster scanning and larger display volumes.
Optimize the transparent medium, laser geometry, focus and scanning logic around one emission color.
Add independently controlled excitation channels and engineered materials for red, green and blue or other selected wavelengths.
Integrate optics, scanning hardware, software, enclosure and eye-safety engineering around the customer's use case.
IMS can develop the crystal composition, particle architecture, excitation strategy and prototype optical system around a company's volumetric visualization problem.
Discuss a volumetric display project