Material Science and Engineering (MSE) – 2017/2018 Bylaws

About

Our world is driven by the materials that are currently available. Millions of products, machines, and innovative technologies are made better because of a new and improved material. In fact, many of today's industrial problems await materials solutions: the automobile industry needs lighter, fuel efficient car bodies. Cell phone and tablet manufacturers are looking for of ultra-thin, damage-resistant glass for displays. Biomedical doctors and engineers are using biologically compatible materials to repair and replace parts of the human body. Computer technology seeks materials that store more information.

The materials science and engineering program at E-JUST provides unique and high impact opportunity to its graduates to be involved in many Hi-Tech industries such as Electronics, Energy, Petrochemical, Pharmaceutical, Automotive, Steel, etc. 

Vision

The Materials Science and Engineering program at E-JUST aiming at worldwide recognizing for excellence in education and research in materials science and engineering discipline. The program is expected to be a destination for students, researchers, and industry people seeking to pursue scholarship that advances the science and engineering of materials. The program will be a source of research data, product development, technical innovation, scientists, and engineers who will best serve their country, nation and the world.

Mission

Providing study and research environment that encourages collaboration and engagement of modern education of undergraduate and graduate students as well as professionals in the industry. This unique environment provides a strong and solid foundation for introducing and preparing engineers and scientists in materials research, developing new and important technical innovations

Objectives

The main target of MSE program at E-JUST is to advance to the national and international market a Materials Engineer who is qualified to carry out the following duties:

• Devise new materials and improve the existing materials
• Develop new methods and technologies of producing materials
• Select materials for parts and devices for different systems
• Perform failure analysis to figure out the reasons of failure
• Analyze and investigate the structure of a material on different level : atomic structure, microstructure and macrostructure to determine characteristics
• Function in multidisciplinary teams
• Communicate effectively

PROGRM OUTCOMES

General

• Apply knowledge of mathematics, science and engineering concepts to the solution of engineering problems.
• Design and conduct experiments as well as analyze and interpret data.
• Design a system; component and process to meet the required needs within realistic constraints.
• Work effectively within multi-disciplinary teams.
• Identify, formulate and solve fundamental engineering problems.
• Display professional and ethical responsibilities; and contextual Understanding
• Communicate effectively.
• Consider the impacts of engineering solutions on society & environment.
• Engage in self- and life- long learning.
• Demonstrate knowledge of contemporary engineering issues.
• Use the techniques, skills, and appropriate engineering tools, necessary for engineering practice and project management.

Specialization outcomes (Industrial and Manufacturing)

• Knowledge of the fundamental science and engineering principles relevant to materials design, development and engineering application.
• Understand the relationship between nano/microstructure, characterization, properties and processing and design of materials.
• Develop students' knowledge of modern materials science and engineering and related new emerging technologies.
• Develop students' communication skills and ability to work collaboratively in the field of materials science and engineering.
• Access to exceptional state-of-the-art laboratories that enables the development of advanced expertise in materials processing and characterization.
• Ability to modeling and solving problems in materials design, processing, characterization and structural analysis.
• Enhance students' practical skills in materials selection, failure analysis and maintenance.
• Explain& present concepts of projects management including planning, scheduling, cost estimates, finance, bidding and contracts.
• Analyze and solve the problems presented by industrial entities.
• Create effective and novel solutions to practical problems.
• Apply the acquired skills in a commercial or industrial environment.
• Use the appreciate ICT tools in a variety of materials engineering aspects.
• Prepare students for careers in industry and for further study in graduate school.

PROGRAM COURSES

Compulsory Courses (Each course weights 3 credit hours)

1. Applied Engineering

MSE 221	Fundamentals of Materials Science
MSE 222	Materials Science Lab.,
MSE311	Structures and Properties of Materials
MSE 312	Physics of Solid Materials
MSE 313	Chemistry of Materials
MSE 314	Thermodynamics and Phase Transformations in Solids
MSE 315	Fundamental of Materials Processing
MSE 316	Project Based Learning on MSE
MSE 321	Seminar on MSE
MSE 322	Mechanical Behavior of Materials
MSE 323	Mathematical Methods for Materials Computation

1. Specialization

MSE 324	Ceramic and glasses
MSE 325	Polymeric Engineering Materials
MSE 411	Electrochemistry and Corrosion
MSE 412	Structural metallic materials
MSE 421	Nanomaterials for Engineers
MSE 422	Materials Selection in Engineering Design and Failure analysis

Graduation Project

MSE 410 Graduation Project (1)

MSE 500 Graduation Project (2) 

Industrial Training

MSE 599 Industrial Training (2 modules)

Elective Courses (Each course weights 3 credit hours)

MSE 414	Organic Chemistry
MSE 415	Materials Characterization
MSE 416	Kinetics and Diffusion processes of Materials
MSE 417	Introduction to composite materials
MSE 418	Functionally graded Materials
MSE 419	Science and Engineering of Nonferrous Materials
MSE 423	Electronic Properties of Materials
MSE 424	Biomaterials
MSE 425	Electron Microscopy and Diffraction Theory
MSE 426	Thin Film Technology
MSE 427	Smart Materials
MSE 428	Materials for Energy Applications
MSE 429	Magnetic Materials
MSE 430	Semiconductor Materials
MSE 431	Introduction of Advanced Materials
MSE 432	Optical Properties of Materials
MSE 433	Deformation and Fracture of Engineering Materials
MSE 434	Fundamentals of Stress and Strain, and Deformation of Metals
MSE 435	Intermolecular Force and Aggregation
MSE 436	Continuum Mechanics
MSE 437	Dielectric Materials Science
MSE 438	Lattice Defects and Dislocation
MSE 439	Advanced Physical Metallurgy
MSE 440	Extractive metallurgy