Course Syllabus

Course Information：

Year-Semester Course Number Course Name Phase Credits Hours Required/Elective Instructor Class Student NO. Withdraw Note

Spring Semester
Year 2019 258861 Advanced Science and Materials 1 3.0 3 ★ SHENG-MING CHEN GCEB
IDEOM 21 0 能源光電外生班與化工所合開

Year-Semester	Course Number	Course Name	Phase	Credits	Hours	Required/Elective	Instructor	Class	Student NO.	Withdraw	Note
Spring Semester Year 2019	258861	Advanced Science and Materials	1	3.0	3	★	SHENG-MING CHEN	GCEB IDEOM	21	0	能源光電外生班與化工所合開

Course Plan：

Instructor SHENG-MING CHEN

Email smchen@ntut.edu.tw

Last Updated 2018-12-12 14:49:01

Course Objective Course Description: This course is designed to provide graduate students an advanced materials synthesis, understand different synthetic technique and analytical application to promote success in their graduate carriers. Core concepts will be presented by both students and course instructor via presentations, discussions and with real time experiments. The curriculum will be wide in scope incorporating aspects of trouble shooting, experimental result discussion, chemical measurements, modern analytical instrumentation, and determination of chemical structure via analytical techniques. Special emphasis will be put on the appropriate preparation, and meaningful presentation, of scientific results. The student is expected to dedicate significant effort both in and out of lectures to be successful. Objectives: Specific goals for the course include the student learning: 1) To understanding the innovative materials for wider application 2) To improve the synthetic technique to find attractive materials 3) To discuss properties and mechanism of the innovated materials 4) To apply the advanced materials for current scientific challenges Texts and Materials: Available in lab, you can read at any time in lab Syllabus for the whole semester Unit-1 Graphene – methodology for the novel synthesis – Graphene Oxide and different nanostructures such as nanosheets – mono and multiple layer – nanoribbon - nanobelt – 2D and 3D graphene. Unit-2 Inorganic Graphene – inorganic graphene-like materials such as, MoS2, WS2, BN – electronic properties- magnetic electronic sensing and energy storage devices. Unit-3 Fullerene and carbon nanotube – fullerene-based and carbon nanotube-based materials for advance technologies - carbon-based materials as interrelated prototypes for zero-dimensional quantum dots and one-dimensional quantum wires - electrical and mechanical properties – practical application. Unit-4 Conducting Polymers – polyaniline - polyvinylpirrolidone - polypyrrole - different polymer composites with metal, metal oxides and various carbon materials – synthesis of co-polymer- Phthalocyanines and porphyrins Unit-5 Activated Carbon from biowastes Biomass derived Activated carbon (AC) - comparison with commercial activated carbon, graphene and CNT – various properties, preparation and characterization - preparation of different metal/metal oxide nanocomposites for various applications, such as electrochemical sensor, biosensors and Energy storage devices. Unit-6 Carbon Fiber Composites – composites of carbon fiber - method of production, physical characteristics fabrication - properties of thermal and electrical conductivity - applications for engineered plastics. Unit-7 Advanced Carbon Electrode Materials for Molecular Electrochemistry: Introduction and scope - materials chemistry of carbon electrodes - electrochemical properties of carbon materials - carbon surface modication - thermal and photochemical modications - amine and carboxylate oxidation. Unit-8 Activated Carbon for Automotive Applications - two principal sources - vehicle exhaust emissions, and fuel system evaporative emissions - activated carbon technology focuses on the control of evaporative emissions - methane adsorption properties of high surface activated carbon Unit-9 Core–shell semiconductor nanocrystal - Classification of core–shell semiconductor nanocrystals - Doped Core Shell Semiconductor Nanocrystals-metal/metal oxides, bimetallic, tri metallic and polymer core-shell – synthesis, characterization, applications; biomedical, optics, LED, etc., Unit-10 Quantum Dots - semiconductor materials – colloidal synthesis – electrochemical assembly – cadmium based quantum dots; CdSe – graphene quantum dots – optical properties – application; photovoltaic, LED, photodetector devices. Unit-11 Advanced Materials and Novel Structured Metallic and Inorganic Materials – hybrid structure of metal oxides and metal nanoparticles

Course Schedule Unit-1 Graphene Unit-2 Inorganic Graphene Unit-3 Fullerene and carbon nanotube Unit-4 Conducting Polymers Unit-5 Activated Carbon from biowastes Unit-6 Carbon Fiber Composites Unit-7 Advanced Carbon Electrode Materials for Molecular Electrochemistry: Unit-8 Activated Carbon for Automotive Applications Unit-9 Core–shell semiconductor nanocrystal Unit-10 Quantum Dots Unit-11 Advanced Materials and Novel Structured Metallic and Inorganic Materials Unit-12 Phthalocyanines and porphyrins as materials for advanced technologies Unit-13 Graphene and 2D Materials Unit-14 nanomaterials electrochemistry Unit-15 Nanobiotechnology Unit-16 2D Nanomaterials for Advanced Bioelectrochemistry

Evaluation and grading policy 　

Materials All right reserved. Do not reproduce without permission.

Foreign-language textbooks:Yes
　

The access to curricular consultation

Note
　

Instructor	SHENG-MING CHEN
Email	smchen@ntut.edu.tw
Last Updated	2018-12-12 14:49:01
Course Objective	Course Description: This course is designed to provide graduate students an advanced materials synthesis, understand different synthetic technique and analytical application to promote success in their graduate carriers. Core concepts will be presented by both students and course instructor via presentations, discussions and with real time experiments. The curriculum will be wide in scope incorporating aspects of trouble shooting, experimental result discussion, chemical measurements, modern analytical instrumentation, and determination of chemical structure via analytical techniques. Special emphasis will be put on the appropriate preparation, and meaningful presentation, of scientific results. The student is expected to dedicate significant effort both in and out of lectures to be successful. Objectives: Specific goals for the course include the student learning: 1) To understanding the innovative materials for wider application 2) To improve the synthetic technique to find attractive materials 3) To discuss properties and mechanism of the innovated materials 4) To apply the advanced materials for current scientific challenges Texts and Materials: Available in lab, you can read at any time in lab Syllabus for the whole semester Unit-1 Graphene – methodology for the novel synthesis – Graphene Oxide and different nanostructures such as nanosheets – mono and multiple layer – nanoribbon - nanobelt – 2D and 3D graphene. Unit-2 Inorganic Graphene – inorganic graphene-like materials such as, MoS2, WS2, BN – electronic properties- magnetic electronic sensing and energy storage devices. Unit-3 Fullerene and carbon nanotube – fullerene-based and carbon nanotube-based materials for advance technologies - carbon-based materials as interrelated prototypes for zero-dimensional quantum dots and one-dimensional quantum wires - electrical and mechanical properties – practical application. Unit-4 Conducting Polymers – polyaniline - polyvinylpirrolidone - polypyrrole - different polymer composites with metal, metal oxides and various carbon materials – synthesis of co-polymer- Phthalocyanines and porphyrins Unit-5 Activated Carbon from biowastes Biomass derived Activated carbon (AC) - comparison with commercial activated carbon, graphene and CNT – various properties, preparation and characterization - preparation of different metal/metal oxide nanocomposites for various applications, such as electrochemical sensor, biosensors and Energy storage devices. Unit-6 Carbon Fiber Composites – composites of carbon fiber - method of production, physical characteristics fabrication - properties of thermal and electrical conductivity - applications for engineered plastics. Unit-7 Advanced Carbon Electrode Materials for Molecular Electrochemistry: Introduction and scope - materials chemistry of carbon electrodes - electrochemical properties of carbon materials - carbon surface modication - thermal and photochemical modications - amine and carboxylate oxidation. Unit-8 Activated Carbon for Automotive Applications - two principal sources - vehicle exhaust emissions, and fuel system evaporative emissions - activated carbon technology focuses on the control of evaporative emissions - methane adsorption properties of high surface activated carbon Unit-9 Core–shell semiconductor nanocrystal - Classification of core–shell semiconductor nanocrystals - Doped Core Shell Semiconductor Nanocrystals-metal/metal oxides, bimetallic, tri metallic and polymer core-shell – synthesis, characterization, applications; biomedical, optics, LED, etc., Unit-10 Quantum Dots - semiconductor materials – colloidal synthesis – electrochemical assembly – cadmium based quantum dots; CdSe – graphene quantum dots – optical properties – application; photovoltaic, LED, photodetector devices. Unit-11 Advanced Materials and Novel Structured Metallic and Inorganic Materials – hybrid structure of metal oxides and metal nanoparticles
Course Schedule	Unit-1 Graphene Unit-2 Inorganic Graphene Unit-3 Fullerene and carbon nanotube Unit-4 Conducting Polymers Unit-5 Activated Carbon from biowastes Unit-6 Carbon Fiber Composites Unit-7 Advanced Carbon Electrode Materials for Molecular Electrochemistry: Unit-8 Activated Carbon for Automotive Applications Unit-9 Core–shell semiconductor nanocrystal Unit-10 Quantum Dots Unit-11 Advanced Materials and Novel Structured Metallic and Inorganic Materials Unit-12 Phthalocyanines and porphyrins as materials for advanced technologies Unit-13 Graphene and 2D Materials Unit-14 nanomaterials electrochemistry Unit-15 Nanobiotechnology Unit-16 2D Nanomaterials for Advanced Bioelectrochemistry
Evaluation and grading policy
Materials	All right reserved. Do not reproduce without permission. Foreign-language textbooks:Yes
The access to curricular consultation
Note