Andrew M. Weiner, Editor-in-Chief
Sujin Choi, Seungin Baek, Dajeong Im, Hyun Kook Kahng, and Hwi Kim
Sujin Choi,1 Seungin Baek,2 Dajeong Im,1 Hyun Kook Kahng,1 and Hwi Kim1,*
1ICT Convergence Technology for Health & Safety, Department of Electronics and Information Engineering, Korea University, 2511 Sejong-ro, Sejong 339-700, South Korea
2Samung Display Co. Ltd., South Korea
*Corresponding author: firstname.lastname@example.org
Fourier modal method based quantitative analysis method of optical power flow and energy loss in general multi-block photonic structures with an internal dipole emitter is described. The analytic expressions of modal power flow and loss are derived for accurate and efficient quantitative analysis. It is revealed that a few dominating excited photonic modes substantially govern the internal energy flow and energy loss. The optical characteristics of the dominant modes are investigated.
© 2014 Optical Society of America
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Table 1 Modal Power Spectrum of the Dominant Radiative and Leaky Modes
Table 2 Analysis Result of Total Power and Energy Loss in Total Optical Field
Table 3 Quantitative Analysis of Total Power Flow and Energy Loss
Table 4 Contribution Ratio of Dominant Photonic Modes to Total External Radiation
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Modal Power Spectrum of the Dominant Radiative and Leaky Modes
Analysis Result of Total Power and Energy Loss in Total Optical Field
Quantitative Analysis of Total Power Flow and Energy Loss
Contribution Ratio of Dominant Photonic Modes to Total External Radiation