The first session provided papers about adverse effects on optoelectronic devices.
The first session provided papers about adverse effects on optoelectronic devices.

Fiber Optics In Adverse Environments Iii (proceedings Of Spie-the International Society For Optical Engineering, Volume 721)

Proceedings of SPIE-The International Society for Optical Engineering Volume 721·Fiber Optics in Adverse Environments III

Proceedings of SPIE- The International Society for Optical Engineering Volume 721·Fiber Optics in Adverse

Fiber optics in adverse environments III : 25 September 1986, Cambridge, Massachusetts

22-24 September 1986, Cambridge, Massachusetts

Components for Fiber Optic Applications

Roger A Greenwell; Society of Photo-optical Instrumentation Engineers.; University of Alabama in Huntsville. Center for Applied Optics.; et al

Greenwell, Roger A; Society of Photo-optical Instrumentation Engineers; University of Alabama in Huntsville. Center for Applied Optics

Bellingham, Wash., USA: SPIE--the International Society for Optical Engineering

Society Of Photo Optical

Proceedings of SPIE--the International Society for Optical Engineering, Bellingham, Wash., USA, c1987

Proceedings of Spie-the International Society for Optical Engineering, Volume 721, September 1986

United States, United States of America

Volume 721, 1987

Cut-off text on some pages due to tight binding.

Includes bibliographies and index.

contributor: 浙江大学

format: Image/Djvu(.djvu)

unit_name: 浙江大学

Type: 英文图书

Bookmarks:
1. (p1) Session 1 Environmental Effects On Optical Fiber Components
1.1. (p2) Space As An Adverse Environment: Vacuum Surface And Gamma Ray Irradiation Effects On Leds And Photodiodes
1.2. (p5) Electron Irradiation Of Ingaasp Leds And Ingaas Photodetectors
1.3. (p18) The Effects Of Radiation On Optoelectronic Devices
2. (p27) Session 2 Environmental Effects On Optical Fibers
2.1. (p28) Static Fatigue Of Optical Fibers In Bending
2.2. (p32) Effect Of Hydrogen Treatment On Radiation Hardness Of Optical Fibers
2.3. (p37) Influence Of Preform Variations And Drawing Conditions On Transient Radiation Effects In Pure Silica Fibers
2.4. (p44) Radiation Resistivity Of Pure Silica Core Fibers
2.5. (p50) Radiation-Induced Losses In Pure Silica Core Fibers
2.6. (p57) Radiation Response Prediction Of Single-Mode Optical Fiber Waveguides
2.7. (p63) Ionizing Radiation Effects On Doped Silica And Pure Silica Core Fibers
3. (p75) Session 3 Measuremnts And Characterization Of Optical Fiber Components
3.1. (p76) Optical Fiber Radiation-Damage Measurements
3.2. (p82) Characterization Of 820-Nm Single-Mode Fibers
3.3. (p89) The Effects Of Test Parameters On The Recovery Of Febetron-Irradiated Optical Fibers
4. (p97) Session 4 Applications And Environments
4.1. (p98) Optical Fiber Waveguides For Spacecraft Applications
4.2. (p104) Optical Fiber Power Delivery System
4.3. (p111) Fiber Optic Cables In A Harsh Ocean Environment
4.4. (p119) Lightguide Technology For Adverse Industrial Environments
4.5. (p127) Low Dispersion Glass For Optical Fiber Industrial Applications

vi, 132 p. : 28 cm
Includes bibliographies and index

2024-07-01