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1 ½Òµ{²¤¶»P·§­z (PDF)
Course Overview and Introduction (PDF)
²Ä¤@³¡ - ¬ÛÃö¨ç¼Æ
Part I - Correlation Functions
2 ÂX´² : §¡¤è¸m´« (PDF)
Diffusion: mean square displacement (PDF)
3 ÂX´² ¡G ³t«×®É§Ç¦Û¬ÛÃö ¡V Green Kudo Ãö«Y¦¡ (PDF)
Diffusion: velocity autocorrelation - Green Kubo relations (PDF)
4 ÂX´² : Van Hove ªÅ¶¡¦Û¬ÛÃö¨ç¼ÆGs(r,t) (PDF)
Diffusion: Van Hove self correlation function Gs(r,t) (PDF)
5 ±K«×¦Û¬ÛÃö¨ç¼ÆG(r,t) (PDF)
The density correlation function G(r,t) (PDF)
6 ®É§Ç¬ÛÃö¨ç¼Æªº¯S©Ê (PDF)
Properties of time correlation functions (PDF)
7 ®|¦V¤À§G¨ç¼Æ g(r)
The radial distribution function g(r)
8 °ÊºAµ²ºc¦]¤l»P«D¼u©Ê¤¤¤l/¥ú¤l´²®g
Dynamic structure factor and inelastic neutron and light scattering
9 G(r,t) ¤èµ{²Õ»P¬ÛªÅ¶¡¬ÛÃö©Ê
Equations for G(r,t) and phase-space correlation
10 ¬yÅé¤O¾Ç¤èµ{²Õ
Equations of hydrodynamics
11 °ÊºAµ²ºc¦]¤lªº¬yÅé¤O¾Ç²z½×
Hydrodynamic theory of dynamic structure factor
²Ä¤G³¡ -- °Ê¤O¾Ç²z½×
Part II - Kinetic Theory
12 ªi¯÷°Ò¤èµ{¦¡ : ²­n±À¾É
Boltzmann equation: brief derivation
13 ªi¯÷°Ò¤èµ{¦¡ : ¸I¼²¤£Åܶq»P¬yÅé¤O¾Ç»±­­
Boltzmann equation: collisional invariants and hydrodynamic limit
14 ©µÄò²Ä13Á¿
Continuation of Lecture 13
15 ªi¯÷°Ò¤èµ{¦¡ : H-©w²z»P¥­¿Åª¬ºAªº¸Ñ
Boltzmann equation: H-theorem and equilibrium solution
16 ½u©Ê¤Æªi¯÷°Ò¤èµ{¦¡ : ÃP¦¢®É¶¡¼Ò¦¡
Linearized Boltzmann equation: relaxation time models
17 Gs(r,t)ªº°Ê¤O¾Ç²z½× -- Nelkin-Ghatak ¼Ò¦¡
Kinetic theory of Gs(r,t) - Nelkin-Ghatak model
18 ©µÄò²Ä17Á¿
Continuation of Lecture 17
19 G(r,t)ªº°Ê¤O¾Ç²z½× ¡V BGK ¼Ò¦¡
Kinetic theory of G(r,t): BGK model
20 °ÊºA¼Ò¦¡¡Bªi¯÷°Ò¤èµ{¦¡¤Î¤¤¤l¶Ç¿é¤èµ{¦¡
Kinetic models, Boltzmann equation and neutron transport equation
21 ½u©Ê¤ÏÀ³²z½×
Linear response theory - complex susceptibility, fluctuation-dissipation theorem
22 ©µÄò²Ä21Á¿
Continuation of Lecture 21
²Ä¤T³¡ -- ­ì¤lµ¥¯Å¼ÒÀÀ¿é°e¬ÛÃö²{¶H
Part III - Atomistic Simulation of Transport and Related Phenomena
23 ¿é°e²{¶Hªº¥­§¡¦Û¥Ñ®|±´°Q(ÂHº¢©Ê¡B¶Ç¾É«×¤ÎÂX´²)
Mean Free Path Treatment of Transport (viscosity, conductivity, diffusion)
24 ©µÄò²Ä22Á¿
Continuation of Lecture 22
25 ­ì¤lµ¥¯Å¼ÒÀÀ¦b¿é°e²{¶H±´°Q¤¤ªº­«­n©Ê (PDF)
Role of atomistic simulations in transport (PDF)
26 ¤À¤l°Ê¤O½×°ò¦: ®É§Ç¾ã¦X¡B¦ì¯à¡B¿é¥X¿é¤Jï°O¡B¬yµ{¤Î¿W¯S¯S©Ê¡C
Basic Molecular Dynamics: time integration, potential, book keeping, flow chart, unique properties
27 ©µÄò²Ä26Á¿
Continuation of Lecture 26
28 ²GºAªº­ì¤lµ¥¯Å¼ÒÀÀ ¡V µ²ºc¤Î°Ê¤O²{¶H
Atomistic simulation of liquids - structure and dynamics
29 ªi¯÷°Ò¤èµ{¥¼¦Ò¶qªº³¡¥÷ -- ¾B¸n®ÄÀ³¡B²oµ·²{¶H¡BÁn¤l¥Í©R´Á
Transport phenomena beyond Boltzmann - cage effects, molasses tail, phonon lifetimes
30 ­ì¤lµ¥¯Å¼ÒÀÀªº¦UºØÀ³¥Î¡]Æ[©À¤¶²Ð)
Diversity of atomistic simulation applications (concepts)
31 ©TºA¼ö¶Ç¾É(ºÒ¤Æª¿)
Thermal conductivity of a solid (SiC)
32 ¤À¤l°Ê¤O¾Ç±´°Q¹³ÅÜ¤Æ -- º²¸Ñ¡B¬Á¼þ¤Æ¤Î«D´¹¤Æ¹Lµ{
MD studies of phase transitions - melting, vitrification and amorphization
33 ©µÄò²Ä32Á¿
Continuation of Lecture 32
34 ¦h­«¤Ø«×§÷®Æ¼Ò¦¡ -- µo®i¤è¦V¤ÎµøÄ±¤Æ
Multiscale materials modeling - perspective and visualization
35 ¿é°e²z½×³Ì«á¤@­Ó¥DÃD:°O¾Ð¨ç¼Æ¡B¼Ò¦¡±µ¦X
Final topic on transport theory: memory function, mode coupling

 
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