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多孔材料和光子晶体在太阳能装置中的热-光辐射特性

摘要第4-6页
Abstract第6-9页
Nomenclature第13-17页
Chapter 1 Introduction第17-57页
    1.1 Background第17-20页
    1.2 Introduction to porous materials第20-28页
        1.2.1 Properties of porous materials第21页
        1.2.2 Macroporous materials第21-22页
        1.2.3 Mesoporous materials第22-23页
        1.2.4 Microporous materials第23-24页
        1.2.5 Polymers nanoporous materials第24页
        1.2.6 Natural and artificial porous materials第24-28页
    1.3 Basic factors affecting porous materials第28-46页
        1.3.1 Porosity第28-30页
        1.3.2 Pore size第30-38页
        1.3.3 Pore morphology第38-42页
        1.3.4 Specific surface area第42-46页
    1.4 Research progress on porous materials in solar energy systems第46-50页
    1.5 Thesis scope第50-51页
    1.6 Research content第51-54页
    1.7 Thesis organization第54-57页
Chapter 2 Principles of photonic crystals and computational methods第57-92页
    2.1 Introduction第57-59页
    2.2 Configuration of photonic crystals第59-66页
        2.2.1 One dimensional photonic crystals第60-62页
        2.2.2 Two dimensional photonic crystals第62-64页
        2.2.3 Three dimensional photonic crystals第64-66页
    2.3 Characterization of photonic band gap第66-68页
        2.3.1 Dispersion Relation第67页
        2.3.2 Ideal case of reflectance and transmittance spectrum第67-68页
    2.4 Photonic band calculations第68-71页
        2.4.1 Maxwell's equations第68-69页
        2.4.2 Floquet–Bloch theorem,reciprocal lattice, and Brillouin zones第69-71页
    2.5 Plane wave expansion method第71-74页
    2.6 Finite-difference time-domain method第74-86页
        2.6.1 Maxwell's equations discretization第76-80页
        2.6.2 Dielectric function第80-81页
        2.6.3 Initial and boundary conditions第81-85页
        2.6.4 FDTD method stability第85-86页
    2.7 Transfer matrix method第86-91页
        2.7.1 Formulation of the TMM for isotropic structures第86-88页
        2.7.2 Extension of the method for anisotropic components structures第88-91页
    2.8 Summary第91-92页
Chapter 3 Optical Characteristics through porous materials based photonic crystals第92-138页
    3.1 Introduction第92页
    3.2 Near-infrared transmission spectra of porous Si/Al2O3 PhC第92-105页
        3.2.1 Physical structure第94-95页
        3.2.2 Effective refraction index versus porosity (Bruggeman model)第95-97页
        3.2.3 Numerical TMM for multilayer 1D PhC第97-99页
        3.2.4 Discussion第99-105页
    3.3 Limitation of optical properties in pSi photonic crystals第105-121页
        3.3.1 Physical model第105-106页
        3.3.2 Lumerical FDTD solutions and boundary conditions第106页
        3.3.3 Physical structure and simulation setup第106-107页
        3.3.4 Discussion第107-121页
    3.4 Optical characteristics of metallo-dielectric nanostructure第121-136页
        3.4.1 Physical model第123-124页
        3.4.2 Visible region optical spectra of composite Ag-pSi dielectric film第124-129页
        3.4.3 Near-infrared optical spectra of composite Ag-pSi dielectric film第129-136页
    3.5 Summary第136-138页
Chapter 4 Thermal radiation in porous materials based photonic crystals第138-163页
    4.1 Introduction第138-139页
    4.2 Theoretical tools of photonic density of states第139-142页
    4.3 Spectral energy density versus DOS in statistical physics approach第142-143页
    4.4 Spectral energy density on the basis of porous Si PhCs第143-152页
        4.4.1 Conjugate PWE & Fourier expansion method第143-146页
        4.4.2 Discussion of SED in porous Si PhCs第146-152页
    4.5 Thermodynamic properties in porous Si photonic crystals第152-160页
        4.5.1 Thermodynamic concepts as function of DOS in thermal radiation field第152-153页
        4.5.2 Discussion of thermodynamic properties in porous Si PhCs第153-160页
    4.6 Summary第160-163页
Chapter 5 Heat transfer characteristics in biphasic system porous materials第163-180页
    5.1 Introduction第163-164页
    5.2 Physical modeling of biphasic porous materials第164-165页
    5.3 Energy equation for transient conduction in biphasic system第165-167页
    5.4 Thermal lattice Boltzmann method (TLBM)第167-168页
        5.4.1 Lattices and the Dn Qm models第167-168页
        5.4.2 Numerical principle of 2D lattice Boltzmann method第168页
    5.5 D2Q9-LBM for heat conduction in biphasic system第168-171页
        5.5.1 Discretization of LBM & BGK approximation第168-170页
        5.5.2 Boundary conditions treatment第170-171页
    5.6 Analytical modeling of ETC of biphasic porous materials第171-172页
    5.7 Normalization of ETC in biphasic porous materials第172页
    5.8 Discussion第172-178页
    5.9 Summary第178-180页
Chapter 6 Conclusions and recommendations for future research第180-186页
    6.1 Conclusion第180页
    6.2 Author's contribution第180-184页
    6.3 Future work第184-186页
References第186-209页
List of Publications第209-213页
Acknowledgements第213-215页
Resume第215-216页

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