Materials Science

Postgraduate Program | School of Science

Materials Science

The Materials Science postgraduate program at Zewail City offers a research-driven pathway focused on understanding, designing, and applying advanced materials across a wide range of scientific and industrial applications. The program integrates principles from chemistry, physics, and engineering to explore the structure, properties, and performance of functional materials.

Students develop expertise in material synthesis, characterization, and application, preparing them to contribute to emerging technologies in energy, environment, and advanced materials systems.

Why Study This Program

at Zewail City?

  • Access to advanced research facilities and specialized laboratories for materials synthesis, characterization, and device fabrication
  • Faculty mentorship from internationally recognized researchers in materials science and related fields
  • Strong focus on applied research addressing global challenges in energy, water, and sensing technologies
  • Interdisciplinary research environment integrating chemistry, physics, and engineering
  • Opportunities to engage in high-impact research and international collaborations

Key Areas of Study

  • Advanced Functional Materials
  • Energy Storage and Conversion Technologies
  • Nanomaterials for Water Treatment
  • Materials for Chemical Sensing
  • Computational Materials Science and Modeling
  • Applied Electrochemistry and Catalysis
  • Emerging Technologies in Sustainable Materials

Available Degrees

M.Sc. in Materials Science

Program Information
Degree Type:
M.Sc.
Study Mode:
Full Time
Duration:
2 Years
Total Credit Hours:
40
Language of Study:
English
School:
School of Science
Program Overview

The M.Sc. in Materials Science is a research-based program designed to develop advanced knowledge and practical skills in the study and application of functional materials. The program combines foundational scientific principles with specialized coursework and laboratory research, enabling students to understand material behavior and develop solutions for real-world applications.

Students gain experience in materials synthesis, characterization, and performance analysis, preparing them for research and advanced technological development.

Program Educational Objectives

Within a few years of graduation, graduates are expected to:

  • Develop advanced knowledge in materials science and related disciplines
  • Apply scientific principles to design and evaluate materials systems
  • Conduct research in areas such as energy, environment, and sensing
  • Contribute to industrial, academic, or research-based applications

Upon completion of the program, graduates will be able to:

  • Identify and solve scientific problems using materials science principles
  • Design and evaluate materials and processes for specific applications
  • Conduct experiments and analyze scientific data
  • Communicate findings effectively across scientific and technical audiences
  • Understand ethical and professional responsibilities in research
  • Work effectively in multidisciplinary teams

The program integrates research from early stages, allowing students to work closely with faculty on applied research problems. Students engage in experimental work, data analysis, and material characterization techniques.

The thesis spans multiple semesters and covers the full research cycle—from problem definition to experimental validation and final defense—preparing students for advanced research or industry roles.

Graduates of the program are prepared for:

  • Ph.D. studies in materials science or related fields
  • Research roles in academic and scientific institutions
  • Positions in R&D across energy, environmental, and advanced materials industries
  • Careers in high-tech sectors such as batteries, semiconductors, and sensors
  • Opportunities in innovation, product development, and technology transfer

To earn the M.Sc. in Materials Science, students must complete 40 credit hours, including:

  • University Requirements — 5 Credit Hours
  • Program & Coursework Requirements — 18 Credit Hours
  • Research & Thesis Requirements — 17 Credit Hours

Students are advised to consult their academic advisor regularly to ensure all requirements are fulfilled.

M.Sc. in Materials Science Admission Requirements

M.Sc. in Materials Science Program Structure

Ph.D. in Materials Science

Program Information
Degree Type:
Ph.D.
Study Mode:
Full Time
Duration:
4 Years
Total Credit Hours:
60
Language of Study:
English
School:
School of Science
Program Overview

The Ph.D. in Materials Science is a research-intensive program designed to develop independent researchers capable of advancing knowledge in functional materials and their applications. The program focuses on understanding the physical and chemical behavior of materials and applying advanced methods in synthesis, characterization, and performance evaluation.

Students conduct original research addressing critical challenges in areas such as energy systems, environmental technologies, and sensing applications, contributing to innovation in advanced materials.

Program Educational Objectives

Upon completion of the program, graduates will be able to:

  • Conduct independent and original research in materials science
  • Design, synthesize, and evaluate advanced materials systems
  • Apply experimental, analytical, and computational methods
  • Analyze data and interpret results for complex material systems
  • Communicate research findings through publications and presentations
  • Lead research projects in multidisciplinary environments

Upon completion of the program, graduates will be able to:

  • Conduct independent and original research in materials science
  • Design, synthesize, and evaluate advanced materials systems
  • Apply experimental, analytical, and computational methods
  • Analyze data and interpret results for complex material systems
  • Communicate research findings through publications and presentations
  • Lead research projects in multidisciplinary environments

The Ph.D. program is centered on independent, high-impact research. Students define and execute a dissertation project addressing critical challenges in materials science, particularly in areas such as energy, environment, and sensing technologies.

Research is conducted using advanced facilities for material synthesis, characterization, and testing. Students are expected to publish in peer-reviewed journals, present at international conferences, and build a strong research profile.

Graduates of the program are prepared for:

  • Academic and faculty positions in universities
  • Senior research roles in scientific and industrial research centers
  • Leadership positions in R&D across energy, environmental, and materials industries
  • Careers in advanced technology sectors such as renewable energy, semiconductors, and sensors
  • Innovation, entrepreneurship, and technology commercialization

To earn the Ph.D. in Materials Science, students must complete 60 credit hours, including:

  • Coursework Requirements — 18 Credit Hours
  • Directed Research — 27 Credit Hours
  • Dissertation — 15 Credit Hours

Students are advised to consult their academic advisor regularly to ensure successful completion of all requirements.

Ph.D. in Materials ScienceDegree Requirements

Ph.D. in Materials Science Study Plan

Computer Engineering

This specialization focuses on advanced computing systems, embedded platforms, and secure digital infrastructures. Students gain expertise in computer architecture, operating systems, embedded systems, computer networks, cybersecurity, and intelligent computing systems.

Career Opportunities:

  • Computer Engineer
  • Embedded Systems Engineer
  • Systems Engineer
  • Cybersecurity Engineer
  • Software Systems Engineer
  • IoT Engineer

Communications Engineering & AI

This specialization focuses on modern communication systems and intelligent networking technologies. Students develop expertise in signal processing, communication system modeling, secure network architectures, and IoT platforms. The track also integrates artificial intelligence and data analytics to optimize communication systems and improve network performance.

Career Opportunities:

  • Telecommunications Engineer
  • Network Systems Engineer
  • Signal Processing Engineer
  • Wireless Communications Engineer
  • AI Communications Engineer
  • IoT Systems Engineer

Nanophotonics and Optical Systems

This specialization focuses on light-based technologies and their applications in communication, sensing, and advanced imaging systems. Students explore optical communication systems, fiber optics, laser technologies, and photonic sensors used in modern industries.

Career Opportunities:

  • Photonics Design Engineer
  • Optical Systems Engineer
  • Optical Communications Engineer
  • Laser Applications Engineer
  • LiDAR Systems Engineer

Micro-Electro-Mechanical Systems (MEMS)

This specialization focuses on micro-scale systems that combine electronic and mechanical components such as sensors and actuators. Students gain both theoretical and hands-on experience in MEMS design, fabrication, and applications across industrial, medical, and smart technologies.

Students also benefit from advanced facilities, including the educational cleanroom, where they learn device fabrication processes and microfabrication techniques.

Career Opportunities:

  • MEMS Engineer
  • Sensor Design Engineer
  • Microfabrication Engineer
  • Semiconductor Process Engineer
  • Biomedical Device Engineer

Graduates may work across industries including semiconductor manufacturing, automotive, telecommunications, healthcare technologies, and aerospace.

VLSI and Integrated Circuit Design

This specialization focuses on the design and development of integrated circuits used in modern electronic systems. Students gain knowledge in digital and analog circuit design, chip architecture, and semiconductor technologies. These skills are essential for developing smart devices, artificial intelligence hardware, communication systems, and advanced computing platforms.

Career Opportunities:

  • Circuit Design Engineer
  • Physical Design Engineer
  • Verification Engineer
  • ASIC Design Engineer
  • Semiconductor Engineer
Young Learners Programs

Seasonal programs designed to build skills and spark curiosity across different age groups.

  • Ages 18–25 | 30 hours – ZC Job Readiness Program

    Focuses on employability skills including communication, professionalism, digital skills, financial awareness, and entrepreneurship.
  • Ages 7–12 & 13–15 | 5 days – Young Scientist Camp

    Hands-on scientific learning with Zewail City professors and researchers, designed to inspire early interest in science and innovation.
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Continuing Education

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Professional Diploma in Data Analysis

180 hours | Micro-credential based

A comprehensive diploma covering:

  • Statistics & Excel for Data Analysis
  • Power BI (Basic to Advanced)
  • Databases & SQL
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  • Python for Data Analysis (Fundamentals to Advanced Applications)

Modules can be taken individually or as a complete professional diploma track.

Corporate Training

Corporate Training & Tailored Programs

Fully customized programs developed in partnership with organizations to address specific capability gaps and performance priorities.

Each program is designed following a deep assessment of organizational objectives, talent needs, and strategic goals, ensuring measurable impact and sustainable outcomes.

  • Performance Analysis
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Short, focused programs designed to build practical leadership, analytical, and business skills.

  • Data-Driven Decision Making
  • Business Psychology
  • HR Analytics using Excel & Power BI
  • International Financial Reporting Standards (IFRS) – Part 1 (25 hours)
  • International Financial Reporting Standards (IFRS) – Part 2 (25 hours)
  • Finance for Non-Finance Professionals (25 hours)