Why MicroVision?

Why Microvision? Because THIS.

The picture below is an un-retouched photo of a PicoP image (through a Celluon PicoAir) with the phone that was providing the image down at the bottom. (It was taken in dark conditions on a white wall.)

Note the size difference -- this is the ultimate large cellphone screen, but it still fits in your pocket. You point it at a wall, and there's your image. 






Below is an advertisement for the Celluon PicoPro which features PicoP technology.


MicroVision has developed a display technology called PicoP ®

It can fit in display components that are this small. 


Check "How it works" at the MicroVision site, for the details



Sony has developed a display engine using MicroVision's technology.



Devices this could be installed in include 
  • Cellphones
  • Tablet Computers
  • Gaming Devices
  • Cellphone Accessories
  • Heads-up Displays for cars
  • Back-lit displays
  • Tabletop displays
  • Other devices (like the one in the video below by AccuVein. -- yes, MicroVision is mentioned in AccuVein's patents.)
AccuVein





Microvision has developed touch-interactive projection. 
They have also cooperated with Microsoft on the same. (see video below.)





Other Company Connections

Mentioned in Magna Electronics Patents (Automotive)


Benefits of Microvision Tech from Jari Hokanen (highlighted in Mems Journal)

Jari Honkanen: Our HUD technology architecture consists of red, green, and blue laser diodes, each with a lens near the laser output that collects the light from the laser. The light from the three lasers is combined with basics optics into a single beam. The intensity of each laser light source is varied to create a complete palette of colors and shades. The beam is then relayed onto a biaxial MEMS scanning mirror that scans the beam in a raster pattern. The projected image is created by modulating the three lasers synchronously with the position of the scanned beam. In the HUD application, specialized relay optics direct the beam of light from the scanning engine, making a virtual image viewable within the driver’s forward-looking field of view.

The main differences between MEMS laser beam scanning HUD, and HUDs based on panel displays: are 1) laser light sources produce brilliant colors and a wide color gamut, which helps the HUD see-through information stand out from background scenes, 2) MEMS LBS HUDs are high-contrast, meaning the lasers are completely off for pixels in the off state. This produces the best see-through display with no background glow, 3) the lasers are directly modulated pixel-by-pixel so light is only produced when needed. For panel-based displays, light sources are always on, even for black pixels, which makes them less power efficient, 4) panel based displays require more complex optical designs, which increases size and can reduce reliability, and 5) laser light, due to its coherence and polarization, is collected and relayed through the optical system with lower losses.


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Competing LIDAR technologies are mechanical scanning LIDAR, non-scanning flash LIDAR, and phase array LIDAR.

When it comes to performance, we believe that our MEMS Scanning LIDAR offers significant benefits, including small size (a thin scanning engine at 6mm width enables new class of form factors), high resolution (we have prototypes that are capturing 5.5M points per second), dynamic (MEMS scanning allows programmable resolution and frame rate. The same sensor can perform either very fast lower resolution scan or slower high resolution scan, depending on the application and driving situation), and low persistence (scanned laser system enables blur-free capture of moving objects).



Price Targets
There are several ways to consider price targets for the stock.

Market Capitalization comparison MicroVision vs Oculus Rift
Sales and Earnings price Targets (and others)
Price/sales ratio


Other Points of View

Microvision Tale Memorial Day 2015

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