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Transcript
27 - Photonic Materials, Devices and Systems – Laser Medicine and Medical Imaging Group – 27
RLE Progress Report 144
Figure 10. OCM en face images taken of Xenopus laevis tadpole and of a laser-fabricated
waveguide embedded in glass (c). Images a, d-e are 1375x250 pixels taken at 4 frames per
second, while images b and c are 1375x500 pixels taken at 2 frames per second. The field of
view in the images is 130 µm x 140 µm.
We will combine our work on broad-bandwidth light sources with our new system design to
achieve high-resolution OCM at multiple wavelengths. We believe the system will provide a
powerful tool for optical biopsy to explore the limits of coherence-gated imaging for clinical
diagnostic purposes.
Ultrahigh Resolution Ophthalmic Imaging
Sponsors
National Institute of Health
Grant NIH-2-R01 EY11289-15
National Institute of Health
Grant NIH-1-R01-EY131780-01
National Institute of Health
Grant NIH-5-R01-CA75289-04
Air Force Office of Scientific Research (MFEL)
Grant F49620-01-1-0186
Air Force Office of Scientific Research
Grant F49620-98-01-0084
Project Staff
Aaron Aguirre, Ravi Ghanta, Tony Ko, Andrew M. Kowalevicz, Pei-Lin Hsuing, Paul Herz, Dr.
Stephane Bourquin, Dr. Christian Chudoba, Dr. Wolfgang Drexler, Dr. Ingmar Hartl, Dr. Hiroshi
Ishikawa, Dr. Adelina Paunescu, Dr. Thomas Schibli, Dr. Ping Xue, Nirlep Patel, Karl Schneider,
Dr. Uwe Morgner, Professor Franz X. Kartner, Professor Mark Brezinski, Professor Joel Schuman
(New England Eye Center), and Professor James G. Fujimoto
OCT has perhaps been most widely investigated in ophthalmology, where it is beginning to make
a clinical impact in the assessment of retinal diseases such as macular holes, age-related
macular degeneration, glaucoma, and diabetic retinopathy [1, 21-23]. Current clinical practice
27-12