Electrochemistry and renewable energy applications

Description:

 This program is aimed at renewable energy industry with focus on electrochemistry and how it applies to solar energy conversion used in solar cells, fuel cells, batteries and . This course is at the intersection of materials science, chemistry and physics and with industry practical exposure.

This Master's program is designed to provide students with advanced knowledge and skills in electrochemistry and renewable energy applications. The curriculum emphasizes a balance between theoretical understanding and practical applications, preparing graduates for leadership roles in research, development, and implementation of sustainable energy solutions. The program encourages students to engage in cutting-edge research and provides flexibility through elective courses to tailor the curriculum to individual interests and career goals.

Duration: 3 semesters

Mode: Online and in person

Degree: Diploma

Cost: $5550 (financial assistance available)

Curriculum:

Semester 1: Core Courses

• Advanced Electrochemical Principles

  • Comprehensive study of electrochemical kinetics, thermodynamics, and transport phenomena.

• Advanced Inorganic Chemistry for Energy Applications

  • In-depth exploration of inorganic compounds relevant to electrochemical systems.

• Materials for Electrochemical Technologies

  • Advanced understanding of materials science and engineering for electrochemical applications.

• Renewable Energy Systems

  • Advanced study of various renewable energy sources, integration, and system analysis.

• Instrumentation and Experimental Techniques in Electrochemistry

  • Advanced laboratory techniques and instrumentation for electrochemical experiments.

Semester 2: Specialized Courses

• Advanced Batteries and Energy Storage

  • In-depth analysis of advanced battery technologies, including lithium-ion, solid-state, and flow batteries.

• Advanced Fuel Cells and Hydrogen Production

  • Comprehensive study of high-efficiency fuel cell technologies and hydrogen production methods.

• Solar Energy Conversion Technologies

  • Advanced principles of photovoltaic cells, solar thermal systems, and emerging solar technologies.

• Wind Energy Systems

  • Advanced study of wind energy conversion systems, wind turbine technology, and grid integration.

• Advanced Topics in Electrochemical Engineering

  • Emerging trends and advanced concepts in electrochemical engineering.

Semester 3: Research and Project Development

• Research Methods in Electrochemistry and Renewable Energy

  • Advanced research methodologies, experimental design, and data analysis.

• Thesis Proposal Development (elective, not mandatory for graduation)

  • Guidance in developing a research proposal for the master's thesis.

• Thesis Research (elective, not mandatory for graduation)

  • Independent research under the supervision of a faculty advisor.

Electives (Choose at least 3):

• Advanced Topics in Nanotechnology for Energy Applications

• Computational Modeling of Electrochemical Systems

• Environmental Impact Assessment of Renewable Energy Projects

• Advanced Energy Policy and Economics

Internship/Industry Collaboration:

• Optional internship or collaboration with industry partners for hands-on experience and application of theoretical knowledge in real-world scenarios.

Seminar Series:

• Attendance and participation in seminars by industry experts and researchers in the field.