Department of Energy Science and Engineering1,981
“We can hardly imagine human history without energy.”
The earliest humans used wood for energy - and in Egypt in 300 B.C., wind-using sailors appeared. Humans rapidly turned from wood to coal in the 18th century - a period of both high population growth and expansion of the fossil fuel industry. Dangerous lamps (candles) using animal oil of kerosene were replaced in the 19th century with Edison's electric lamp invention. The demand for oil energy skyrocketed in the 20th century along with the high development of the automobile industry to the point that after WWⅡ. It was difficult to control the soaring consumption of oil. Thus, humans imprudently began the consumption of energies that had been stored on earth for a long time.
“What would be the next for the future?”
The answer will probably be renewable energies that are available at any place - such as inexhaustible sunlight, bio-fuels, wind and geothermal energy. Other examples include devices such as fuel cells using hydrogen fuels. Many countries are investing a considerable labor force and financial resources to solve the energy issue. Korea established the goal to provide more than 20 percent of our total energy needs with modern renewable energies by 2050 and is turning its support policies in that way.
“Energy Science & Engineering pursue the sustainability of our planet.”
Particularly as we begin the 21st century, sustainability is becoming one of the world's biggest interests due to fossil fuel depletion and climate change. DGIST ESE, based on an in-depth education about future energies, is targeting the training of competent students enhancing a creative and systematic way of thinking with interdisciplinary business communication ability who will contribute to the international society. The followings are the student characteristics that are emphasized to reach that goal.
DGIST Department of Energy Science and Engineering Homepage
The earliest humans used wood for energy - and in Egypt in 300 B.C., wind-using sailors appeared. Humans rapidly turned from wood to coal in the 18th century - a period of both high population growth and expansion of the fossil fuel industry. Dangerous lamps (candles) using animal oil of kerosene were replaced in the 19th century with Edison's electric lamp invention. The demand for oil energy skyrocketed in the 20th century along with the high development of the automobile industry to the point that after WWⅡ. It was difficult to control the soaring consumption of oil. Thus, humans imprudently began the consumption of energies that had been stored on earth for a long time.
“What would be the next for the future?”
The answer will probably be renewable energies that are available at any place - such as inexhaustible sunlight, bio-fuels, wind and geothermal energy. Other examples include devices such as fuel cells using hydrogen fuels. Many countries are investing a considerable labor force and financial resources to solve the energy issue. Korea established the goal to provide more than 20 percent of our total energy needs with modern renewable energies by 2050 and is turning its support policies in that way.
“Energy Science & Engineering pursue the sustainability of our planet.”
Particularly as we begin the 21st century, sustainability is becoming one of the world's biggest interests due to fossil fuel depletion and climate change. DGIST ESE, based on an in-depth education about future energies, is targeting the training of competent students enhancing a creative and systematic way of thinking with interdisciplinary business communication ability who will contribute to the international society. The followings are the student characteristics that are emphasized to reach that goal.
DGIST Department of Energy Science and Engineering Homepage
- Ab initio multi-scale engineering Lab(AIMS-E Lab)14
- ACES Lab1
- Advanced Energy Materials Laboratory170
- Advanced Intelligence for Materials Lab0
- AECSL(Advanced Energy Conversion and Storage Lab)70
- ANI LAB0
- Applied Nanomaterials & Devices LAB1
- Battery Design and Processing Laboratory8
- Battery Materials & Energy Laboratory6
- Battery Materials & Systems LAB198
- Battery Materials Discovery Laboratory128
- Biophysics and Soft Matter (BioSM) Lab17
- Catalyst & Process Laboratory11
- Chemical & Energy Materials Engineering (CEME) Laboratory57
- CMMM Lab(Curious Minds Molecular Modeling Laboratory)51
- Electrochemical Materials & Devices Laboratory66
- Electrochemistry Laboratory for Sustainable Energy(ELSE)126
- Energy Conversion Materials Engineering Laboratory60
- Energy Materials Design and Processing Lab4
- Energy Science and Engineering Research Center7
- Energy Systems Engineering16
- ETC31
- Hybrid Optoelectronic Device Laboratory13
- Laboratory for Electrochemical Energy Materials and Interfaces25
- Laboratory of Electrochemical Materials and Interfaces0
- Lee Research Group1
- Light, Salts and Water Research Group161
- MNEDL(Multifunctional Nanomaterials & Energy Devices Lab)83
- NanoMaterials Laboratory86
- Organic & Printed Electronics Laboratory(OPEL)106
- Photo & Electrochemical Materials Science & Engineering Lab132
- Polymer Energy Materials Lab45
- Polymer PhotoCatalysts Laboratory1
- Poylmer and Organic Energy Materials Laboratory27
- Renewable Energy Conversion Materials Laboratory27
- Simulation and Machine Learning for Soft Matter Lab2
- Theses349
Subject
- PERFORMANCE 164
- NANOPARTICLES 102
- STABILITY 73
- EFFICIENT 59
- NANOCRYSTALS 56
- CATALYSTS 51
- REDUCTION 51
- SURFACE 50
- Electrolytes 48
- Electrodes 46
Date issued
- 2020 - 2026 1047
- 2011 - 2019 602
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Recent Submissions
- Tailoring the electronic properties of g-C3N4 via D-π-A framework for metal-free photocatalytic CO2 conversion and H2 evolution
- Advanced carbon architectures for Pt-based oxygen reduction electrocatalysts in polymer electrolyte membrane fuel cells
- Kinetic origin and mitigation of sudden capacity fade in silicon-based lithium-ion batteries
- Oligoethylene Glycol Side-Chain Engineering of Y6-Derived Nonfullerene Acceptors for Thermally Induced Spontaneous Pseudo-Planar Heterojunction Organic Photodetectors
- Low-temperature photothermally cross-linked hole transport layer enabled by Thiol-Ene click chemistry for high-performance quantum dot light-emitting diodes
