Tight environment high radiation area non-serviceable area passive components optics only, no active electronics transmit image through flexible fiber.

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Presentation transcript:

tight environment high radiation area non-serviceable area passive components optics only, no active electronics transmit image through flexible fiber bundle Optical Diagnostics

optical design in secondary containment One set of optics per viewport e-Drawing - Van Graves, ORNL Conceptual design completed issues on the imaging fiber bundle

Fujikura imaging fibers

Sumitomo imaging fibers IGN-08/20 - sample 5 meter limit >20 meter available All have small imaging area <2 mm diameter Rad-hard?

total fiber counts ~18,000 in 1 mm diameter Imaging ~150 x 150 fibers on 240 x 240 CCD array ~1 imaging fiber on ~1.6 pixel on a single frame SMD camera CCD size:13.4 x 13.4 mm Pixels:960x960 Single frame: 240x240 pixels 57,600 picture elements Reduced pixel size: 56 x 56 um More imaging fibers (glass) 18,000 glass fibers fiber diameter 6 μm bundle diameter ~ 1-mm 8-mm outer diameter FOV 40 deg DOF 15-mm to infinity Length: 1-meter Hawkeye flexible borescope

cm scale borescope retroreflected illumination

laser borescope retroreflected illumination total fiber counts ~18,000 in 1 mm diameter Imaging φ=150 fibers on 240 x 240 CCD array ~1 imaging fiber on ~1.6 pixel on a single frame SMD-64KIM camera 16 frames, at 10 µs/frame, exposure time 0.15 μs

SMD-64KIM camera 16 frames, at 10 µs/frame, exposure time 0.15 μs 18,000 glass fibers, flexible 50,000 glass fibers, image conduit rad-hard Sumitomo 30,000 fibers image ?? image quality comparison

Optical Diagnostics An optical chopper in 4 kHz Stationary image 100 µs/frame 10 µs/frame ~40 m/s 100 µs/frame with reflective mask 1 µs/frame

Irradiation Studies of Optical Components - II total fiber counts ~30,000 in 0.72 mm diameter imaging φ=195 fibers on 240 x 240 CCD array ~1 imaging fiber on ~1.2 pixel on a single frame CERN, week of Oct. 24, GeV proton beam 4 x proton Irradiation dose: equivalent to 40 pulses of 24 GeV proton beam 28 TP/pulse total of 1.2 x proton

tight environment high radiation area non-serviceable area passive components optics only, no active electronics transmit image through flexible fiber bundle One set of optics per viewport

Fast camera capture of waterjet September 16, Princeton Camera: FastVision 13 capability 1280x1024 pixels, 500 frames/sec, 0.5 sec video or … complete waterjet close-up view of nozzle waterjet in action: movie nozzle: diameter ~8 mm, length 6-inch 1280x1000 pixels 50 frame/sec 20 frames of video

Water jet velocity measurement using strobe light MIT museum - Harold Edgerton flow velocity = strobe frequency x Δd