| Bahan Kajian | - Definisi dan organisasi kursus 2. Perkembangan historis bahan nano 3. Klasifikasi bahan nano
- Satuan Ukuran dan Skala: Penskalaan Atom, Molekul, Kluster, dan Supramolekul
- Struktur dan Ikatan dalam Nanomaterial Ikatan Kimia (jenis dan kekuatan) Gaya Antarmolekul Struktur Molekuler dan Kristalin Struktur Hierarkis Transisi dari Bahan Padat ke Permukaan, Rekonstruksi Permukaan 2 Perakitan Sendiri dan Termodinamika
- Kimia Optik, getaran, termal Listrik Magnetik Mekanik Aspek Teoretis-misalnya, fungsi densitas
- Rute kimia Metode elektrokimia Pertumbuhan uap
- Metode film tipis: deposisi uap kimia, deposisi uap fisik (sputtering, ablasi laser), pertumbuhan Langmuir-Blodgett Metode mekanik: penggilingan bola, abrasi mekanik Metode sol-gel
- Bahan nano khusus: tabung nano karbon, fullerene, kabel nano, silikon poros Sintesis terinspirasi biologi Pembuatan nanokomposit Nanolitografi
- Mikroskopi Elektron Pemindaian dan Transmisi, Mikroskopi Probe Pemindaian: Mikroskopi Gaya Atom, Mikroskopi Pemindaian Tunneling Teknik Difraksi dan Penyebaran, Spektroskopi Getaran Teknik Permukaan
- Nanoelektronika, Nanooptika, Sensor kimia dan biologi berskala nano, Aplikasi biologi/medis, Fotovoltaik, sel bahan bakar, baterai, dan aplikasi terkait energi, Komposit nano berdaya tinggi, Bahan nanoenergetik
| - Definitions and course organization 2. Historical development of nanomaterials 3. Classification of nanomaterials
- Size & Scale Units Scaling Atoms, Molecules, Clusters and Supramolecules
- Structure and Bonding in Nanomaterials Chemical Bonds (types and strength) Intermolecular Forces Molecular and Crystalline Structures Hierarchical Structures Bulk to Surface transition, surface reconstruction 2 Self assembly and thermodynamics
- Chemical Optical, vibrational, thermal Electrical Magnetic Mechanical Theoretical Aspects-e.g. density functional theory
- Chemical routes Electrochemical methods Vapor growth
- Thin films methods: chemical vapor deposition, physical vapor deposition (sputtering, laser ablation), Langmuir-Blodgett growth Mechanical methods: ball milling, mechanical attrition Sol-gel methods
- Special nanomaterials: carbon nanotubes, fullerenes, nanowires, porous silicon Bio-inspired synthesis Nanocomposite fabrication Nanolithography
- Scanning and Transmission Electron Microscopy, Scanning Probe Microscopies: Atomic Force, scanning tunneling microscopy Diffraction and scattering techniques, Vibrational spectroscopy Surface techniques
- Nano-electronics, Nano optics Nanoscale chemical- and bio-sensing, Biological/bio-medical applications, Photovoltaic, fuel cells, batteries and energy-related applications, High strength nanocomposites Nanoenergetic materials
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