Boston Micromachines Corporation

Boston Micromachines Corporation
Industry Deformable mirror
Adaptive Optics
MEMS
Founded Boston, Massachusetts, U.S. (1999)
Founder Dr. Thomas Bifano
Paul Bierden
Headquarters Cambridge, Massachusetts
Area served
 worldwide
Products Customized adaptive optics enabled MEMS products including deformable mirrors, optical modulators, retro-reflectors, and ophthalmoscopes
Website BostonMicromachines.com

Boston Micromachines Corporation is a US company operating out of Cambridge, Massachusetts. Boston Micromachines manufactures and develops instruments based on MEMS technology to perform open and closed-loop adaptive optics. The technology is applied in astronomy, beam shaping, vision science, retinal imaging, microscopy, laser communications, and national defense. The instruments developed at Boston Micromachines include deformable mirrors, optical modulators, and retinal imaging systems, all of which utilize adaptive optics technology to enable wavefront manipulation capabilities which enhance the quality of the final image.

History

Founded in 1999 by Dr. Thomas Bifano and Paul Bierden, Boston Micromachines is a provider of MEMS-based mirror products for use in commercial adaptive optics systems which apply wavefront correction to produce high resolution images of the human retina and enhance blurred images. The company also performs research in optical MEMS fabrication.[1][2]

Research and Development

Boston Micromachines is funded in part by research programs and develops new products for astronomy, microscopy, pulse shaping, beam shaping, fiber coupling, space optics, retinal imaging, and national defense purposes.[3]

Most recently, Boston Micromachines has developed an Adaptive Optics Scanning Laser Ophthalmoscope for high-resolution in vivo imaging in the human retina for use in pre-clinical studies. The instrument is currently in use in the Feinberg School of Medicine and the Joslin Diabetes Center.[4] Capabilities include quantitative measures of cone physiology, detection of microaneurysms and small vessel blood flow profiling.

Their products are often customized for specific applications.[5]

Applications

Astronomy

Boston Micromachines develops deformable mirrors for telescopes to correct for atmospheric disturbance.[6] Projects currently using Boston Micromachines' mirror technology include the ViLLaGEs Project at the Lick Observatory as well as the Gemini Planet Imager in Chile.[7]

Biological Imaging

Through the use of adaptive optics, deformable mirrors can be used to enhance Confocal techniques such as two-photon excitation fluorescence (2PEF), second- and/or third-Harmonic Generation (SHG/THG, respectively), Coherent anti-Stokes Raman spectroscopy (CARS), Scanning laser ophthalmoscopy (SLO), Optical coherence tomography (OCT) as well as conventional wide-field microscopy.[8] Of particular interest is that deformable mirrors increase the resolution of retinal[9] images to achieve ~2 µm resolution levels. Photoreceptor cells are around 3 µm in diameter. Without adaptive optics, resolution levels are in the 10-15 µm range. Research using other confocal techniques is currently taking place at such locations as the University of Durham, Harvard University and Boston University.

Laser beam and pulse shaping

Boston Micromachines deformable mirrors are capable of correcting for atmospheric distortion in long distance laser communication and other pulse shaping applications.[10]

Management

Awards

See also

References

  1. ↑ CLEO Conference: Boston Micromachines Awarded Grant from NASA for Space Imaging Research. “”
  2. ↑ Boston Micromachines Introduces High Performance Reflective Optical Chopper for Laser Science Applications. ""
  3. ↑ Boston Micromachines, Applications and Customer Profiles. “”
  4. ↑ "Retinal Imaging Systems". Boston Mircomachines Corporation. Retrieved 5 October 2016.
  5. ↑ Andrew Norton, Donald Gavel, Daren Dillon and Steven Cornelissen, 2010, High-power visible-laser effect on a Boston Micromachines MEMS deformable mirror, ""
  6. ↑ GPI , GPI Adaptive Optics Subsystem , “”
  7. ↑ "high actuator count". Retrieved 5 October 2016.
  8. ↑ Delphine Débarre, Edward J. Botcherby, Martin J. Booth, and Tony Wilson, Adaptive optics for structured illumination microscopy, 2008, ""
  9. ↑ Weiyao Zou and Stephen A. Burns ,High-accuracy wavefront control for retinal imaging with Adaptive-Influence-Matrix Adaptive Optics, 2009, ""
  10. ↑ Steven Menn, Steven A. Cornelissen, Paul A. Bierden , 2007, Advances in MEMS deformable mirror technology for laser beam shaping, ""

External links

This article is issued from Wikipedia - version of the 10/11/2016. The text is available under the Creative Commons Attribution/Share Alike but additional terms may apply for the media files.