Micro-Optomechatronics (Optical Science and Engineering)

1 The Coming of Nanotechonology......Page 1
1.1 Maxwell Equations......Page 3
2.2 Derivation of the Equation of Motion of Beam Using Force Balance......Page 6
Table of Contents......Page 0
2.1 Background of Near Field Optical Recording......Page 5
2.3 Derivation of the Equation of Motion Using the Energy Principle......Page 9
2.4 Derivation of the Equation of Motion Using a Many-Degree-of-Freedom System......Page 10
3.1.2 High-speed Operation......Page 13
2 Nano-Optomechatronics for Optical Storage......Page 4
2.3 Head-to-Medium Spacing Control of Near Field Recording......Page 12
2.5 Solution of Free Vibration and Eingenmode......Page 14
1.5.3 Solid Immersion Lens......Page 16
2.4 Continuous Tracking Error Detection for Near Field Recording......Page 17
1.6 Evanescent Field......Page 18
1.7.1 Evaluation of Energy Flow Rate......Page 20
3.2 Approximate Analysis by the Bead Model......Page 22
REFERENCES......Page 25
3.1.5 Stabilization of CCL by a Negative Feedback Loop......Page 26
4.2 Damping Ratio of Microsized Beam......Page 27
1.3 Position Detection in Continuous Tracking Servo System......Page 8
2.5 Signal Detection and Readout Demonstration......Page 21
3.2.2 Application to Dynamic Detection of Small Forces......Page 29
REFERENCES......Page 38
3.2.1 Transfer Matrix......Page 43
2.2 Principle of Linearly Tunable Optical Filters......Page 44
2.3 Positioning Using DC Servo Motors......Page 46
4.1.1 Dynamic Response by an Alternating Electric Field......Page 49
4.1.2 Dielectric Function of Free Electrons......Page 50
2.4.4 Transmission Experiments......Page 51
4.2.2 Transverse Plasma Oscillation......Page 54
2.1 Dynamic Models of the Beam......Page 2
2.2 Nano-Optomechatronics in Near Field Optical Recording......Page 7
3.1.3 Resolution in Spectrum Measurement......Page 15
3.1 Basic Equation of Fluid Flow......Page 19
2.2 Resonant Wavelength......Page 23
3.1.3 Accuracy......Page 24
REFERENCES......Page 32
1.4 Interference......Page 11
3.1.1 Complex Refractive Index and Admittance......Page 37
3.1.2 Light Wave Behavior at Dielectric Surface......Page 39
3.1.3 Derivation of Effective Admittance......Page 41
3.2 Propagation of Light Waves in Multilayer Structures......Page 42
3.2.2 Evaluation of Transmission Characteristics Using Transfer Matrix......Page 45
3.3 Transmission Characteristics of Optical Bandpass Filter......Page 47
4 Extraordinary Electromagnetic Waves in Condensed Matter with Free Electrons......Page 48
4.2 Plasma Oscillation in Free-Electron Gas......Page 52
4.2.1 Longitudinal Plasma Oscillation......Page 53
4.3.1 Concept of Surface Plasmon Polariton......Page 55
4.3.2 Analysis of SPP Waves Based on Electromagnetic Dynamics......Page 56
4.3.4 Confinement of an Electromagnetic Field in a Small Space......Page 58
4.3.5 Experimental Demonstrations......Page 61
REFERENCES......Page 63
5 Stick-Slip Caused by Friction Force......Page 33