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\����{�������w���_}{Advanced Physical Chemistry}%
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\EdbColDef{edb:lecture.goal}{2}{E}{To understand the fundamentals of crystal growth}%
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\EdbColDef{edb:lecture.outline}{1}{E}{(Solvation phenomena) Many chemical reactions are studied in liquids.\ Although solvation process plays a key role in these reactions, it is hard to understand the solvation quantitatively.\ In this lecture, "solvation thermodynamics" based on statistical mechanics is introduced and the methods to understand the solvation theoretically are explained.\ (Crystal Growth) Concepts and technology of crystal growth play an important role in design of materials and structure analysis.\ The main goal of this class is to provide a solid introduction to the fundamentals of crystal growth that can be used to describe various phenomena involving equilibrium conditions, rate processes, surface or interface properties, etc.}%
\EdbColDef{edb:lecture.outline}{1}{J}{(�n�}�a)�t�̒��ŉ��w�������������邱�Ƃ������D�����̔����ŁC�n�}�a���傫���֗^���邪�C��ʓI�ɗ������邱�Ƃ͍���ȏꍇ�������D���̂��߁C���v�͊w�Ɋ�Â��u�n�}�a�M�͊w�v�𓱓����ėn�}�a�𗝘_�I�ɉ��߂����@�ɂ��ču�q����D (��������)���������w�́C�ޗ��݌v��\����͂ɑ΂��d�v�Ȗ������ʂ����Ă���D���̌��������w��ʂ��āC���t��Ԃ̔M�͊w�C�������x�_�C�\�ʊE�ʂ̉��w�Ȃǂɂ��Ă��[���w�ԁD}%
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\EdbColDef{edb:lecture.outline}{1}{E}{(Solvation phenomena) Many chemical reactions are studied in liquids.\ Although solvation process plays a key role in these reactions, it is hard to understand the solvation quantitatively.\ In this lecture, "solvation thermodynamics" based on statistical mechanics is introduced and the methods to understand the solvation theoretically are explained.\ (Crystal Growth) Concepts and technology of crystal growth play an important role in design of materials and structure analysis.\ The main goal of this class is to provide a solid introduction to the fundamentals of crystal growth that can be used to describe various phenomena involving equilibrium conditions, rate processes, surface or interface properties, etc.}%
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