Master of Science in Corrosion Engineering

(JPT/BPP(R/0714/7/0005) 07/29)(MQA/SWA11858)

Introduction

Embark on an exciting career where science meets sustainability! Corrosion Engineering is at the forefront of protecting the world’s infrastructure—from pipelines and plant structures to energy systems and aerospace technology. Our programme is the one-of-its-kind in South East Asia that specializes in Corrosion Engineering. By joining this programme, you’ll gain the required knowledge and practical skills to develop innovative solutions that prevent material degradation, reduce maintenance costs, and extend the lifespan of critical assets. Be part of corrosion professions that play a vital role in fostering a future in structure sustainability and asset protection for industries worldwide. Start your journey in UTP today and make a lasting impact to innovate, protect and sustain.

Programme Objectives

The objective of the programme is to produce:

Corrosion Engineering specialists with insights to articulate complex industry problems and solutions.
Industry leaders with integrity towards sustainable future development Sustainable Development Goals (SDG) through continuous improvement and innovation for the betterment of society.

Programme Outcomes

At the end of the program, graduates should be able to:

Demonstrate in-depth and frontier knowledge and understanding in Corrosion Engineering field or practice.
Critically and creatively apply knowledge in Corrosion Engineering or more fields to resolve complex disciplinary and practical problems.
Conduct credible problem solving or investigation to resolve complex issues and questions in the Corrosion Engineering field or practice.
Conduct research or investigation with minimal supervision. adhering to legal, ethical, professional and sustainable practice
Demonstrate leadership qualities through collaboration with peers and others.
Communicate and interact effectively with peers in corrosion fields as well as general audience.
Select and use suitable digital and analytical tool techniques to resolve problems; and
Demonstrate commitment to lifelong learning and personal development.

Programme Highlights

One-of-a-kind programme in the South East Asia
Modular-based courses specially tailored for industry needs
Upskilling programme for career advancement in corrosion field
Leverage our vast industry network and boost your industry readiness
Access to state-of-the-art in-campus corrosion laboratory facilities

Programme Details

Department: Department of Mechanical Engineering

Intakes: January, May, and September

Mode of Deliverance:

• Full Time Conventional

• Full Time ODL

• Minimum study duration: 12 months Maximum study duration: 36 months

Entry Requirements

Candidates must hold a bachelor degree in Engineering OR Engineering Technology discipline with minimum CGPA 2.50/4.00 or equivalent in the relevant field from a recognized university.
Candidates with bachelor degree in Engineering OR engineering Technology discipline with minimum CGPA 2.00 but below 2.50, must have minimum 5 years working experience and can be admitted after passing UTP internal rigorous assessment interview session.
Candidates with bachelor degree qualification from different disciplines, must undergo and pass two pre-requisite courses from Mechanical Engineering Programme.

Apel.A field:

Candidates must be at least 30 years old and possess STPM, diploma or other equivalent recognised qualifications, along with relevant work experience.
Candidates who pass the APEL.A T7 assessment can be admitted to MSc by coursework programmes.

English Requirements

For International students, with a minimum IELTS score of 5.0 OR TOEFL score of 500 OR its equivalence.

Estimated Total Cost Fee

• RM (Malaysian): 29,550

• RM (International): 38,600

Career Prospects

Graduates with MSc in Corrosion Engineering will enhance their employment and industrial career prospects in the corrosion-related fields. The qualification accelerates career progression attaining high level competency.

Areas of opportunities:

• Upstream: Exploration & Production

• Downstream: Refinery & Petrochemicals

• Power: Process-related & Infrastructure

• Consultant services & testing

• Industry: Manufacturing

• Academia

• R&D

Programme Curriculum Structure and Programme Module Synopsis

ODL Programme Curriculum Structure

Each student is required to complete 40 credit hours. The programme curriculum structure is shown as below:


Course Code			Course Name		Course Type	Credit Hours
	Semester 1
	OAB 5114	Principles of Corrosion		Core			4
	OAB 5123	Engineering Materials, Fundamentals and Selection		Core			3
	OAB 5134	Corrosion Control, Monitoring and Management System		Core			4
	OAN 5032	Research Methodology		NR			2
	OAU 5022	Project Management		UR			2
							15

NR = National Requirement

UR = University Requirement

Semester 2
OAU 5362	Data Analytics	UR	2
OAB 5214	Corrosion Inhibition, Cathodic Protection and Protective Coating	Core	4
OAB 5223	Engineering Failure Analysis and Inspections	Core	3
OAB 5244	Industrial-Based Project I	Project	4
			13

Semester 3
OAB 5316	Research Project II	Project	6
OAB 5XX3	Elective Course I	Elective	3
OAB 5XX3	Elective Course II	Elective	3
			12

	Electives (Choose any two)
OAB 5323		Oilfield and Process-related Corrosion	Elective	3
OAB 5333		Microbiologically Influenced Corrosion	Elective	3
OAB 5343		High Temperature Corrosion	Elective	3
OAB 5353		Pipeline Corrosion Management	Elective	3

ODL Programme Module Synopsis

Course Code	Module	Credit Hour
OAB 5114	Principles of Corrosion	4 credits
This course introduces the fundamental science underlying various corrosion phenomena and surface treatment that can be used for protection. The role of electrochemistry in corrosion is explained and the different experimental methods of measuring corrosion rates for metals follow from the kinetic and thermodynamic behaviours expected in different environments. Different forms of corrosion are introduced. Case studies are used to introduce students to the standard equipment used for corrosion measurement and classes using problem-based learning to allow students to become familiar with directing their own investigations of corrosion problems.

Course Code	Module	Credit Hour
OAB 5123	Engineering Materials, Fundamentals and Selection	3 credits
This course provides a comprehensive understanding of engineering materials, covering their properties, processing and applications in various engineering contexts. It emphasizes the relationship between material properties and their performance in real-world applications, considering environmental, design, and economic factors.

Course Code	Module	Credit Hour
OAB 5134	Corrosion Control and Management System	4 credits
This course discusses common classes of material used in the Oil and Gas industry in relation to the service environment and design criteria. The various corrosion mechanisms and corrosion damages encountered in the Oil and Gas industry will all be considered during the course. Influence of process parameters, fluid type, CO2, H2S and O2 corrosion process and factor influencing them will be discussed. Through analysis of the chemical and physical characteristics of the system the precipitant will estimate the system corrosivity with the recap and review of materials selection and coatings for corrosion resistance for different conditions and applications. Fundamental to Cathodic protection (CP) will be also discussed. CP survey techniques for buried structure as well as factors to be considered when designing of a Cathodic Protection system (e.g. estimating current requirements) will be explored. The participant will learn how to select and utilize corrosion inhibitors for different systems based on the fluid type and service environment. Selection of the appropriate corrosion inspection and monitoring techniques will also be discussed. Furthermore, Risk Based Inspection as a current trend in defining the inspection frequency requirements will be explained.

Course Code	Module	Credit Hour
OAB 5214	Cathodic Inhibtion, Cathodic Protection and Protective Coating	4 credits
This course covers the corrosion control methods with the use of corrosion inhibitor, cathodic protection and protective coatings to mitigate different forms of corrosion. Topics covered are corrosion control types, their mechanisms, applications, system monitoring, performance evaluation and mitigation strategies for various industry processes.

Course Code	Module	Credit Hour
OAB 5223	Engineering Failure Analysis and Inspection	3 credits
This course covers introduction to failure analysis and prevention, corrosion failure, materials selection for failure prevention, manufacturing aspects of failure and prevention, structural life assessment methods, tools and techniques in failure analysis, case studies in failure analysis, and risk-based Inspection.

Course Code	Module (Elective)	Credit Hour
OAB 5323	Oilfield and Process-related Corrosion	3 credits
This course covers the damage mechanisms and material failures commonly found in upstream oilfield, downstream refinery and process-related industries. The topics covered are the damage description, mechanisms, damage appearance, affected equipment, critical factors, inspection & monitoring, prevention & mitigation strategies for these corrosion processes in upstream, midstream and downstream industry.

Course Code	Module (Elective)	Credit Hour
OAB 5333	Microbiologically Influenced Corrosion	3 credits
The course will cover basic corrosion management principles, basic MIC mechanisms, use of molecular microbiological methods (MMM) in diagnosing and managing MIC, selection of MIC mitigation methods, selection and interpretation of MIC monitoring methods, case studies demonstrating MIC diagnostic tools, and demonstrate applicable sampling techniques/equipment.

Course Code	Module (Elective)	Credit Hour
OAB 5343	High Temperature Corrosion	3 credits
This course offers a comprehensive understanding of the mechanisms, prevention, and control of high-temperature corrosion. It covers fundamental principles, various types of corrosion, material behavior at elevated temperatures, and practical solutions for industries exposed to high-temperature environments. Additionally, the course equips corrosion engineers with essential problem-solving skills and knowledge needed to address high-temperature degradation in gas turbines and power plants. Throughout the course, students will gain a robust understanding of the fundamental principles that govern high-temperature corrosion processes, including the various types of corrosion. Additionally, the course will address the latest advancements in high-temperature corrosion research, exploring new materials, technologies, and methods that are used to control high temperature corrosion.

Course Code	Module (Elective)	Credit Hour
OAB 5353	Pipeline Corrosion Management	3 credits
This course discusses common classes of material used in the pipeline industry in relation to the service environment and design criteria. The main type of corrosion damages encountered in the Oil and Gas pipeline will be considered. Influence of process, fluid regime, material, CO2, H2S, O2 and MIC corrosion process and factor influencing them will be discussed. Chemical sampling and analysis of the pipeline fluid system as an index of fluid corrosivity and subsequent required control measures will be discussed in detail. Fundamental to Cathodic Protection (CP) for external protection of the pipeline will be discussed with CP survey techniques for both offshore and onshore pipelines. Furthermore, factors to be considered when designing a CP system (e.g. estimating current requirements) will be explored. The participant will learn how to select and utilize corrosion inhibitors for different systems based on the fluid type and service environment, and how to select and apply corrosion inspection and monitoring techniques for the pipeline. Risk Based Inspection as a current trend in defining the inspection frequency requirements will also be explained.

Course Code

Module

Credit Hour

OAN 5032

Research Methodology

2 credits

Series of seminars on topics related to research preparations: manage and plan research activities, think creatively, setup experimental/model for theory verification, prepare to commercialise research, prepare research report and communicate research output effectively.

Course Code	Module	Credit Hour
OAU 5022	Project Management	2 credits
This course is designed to equip students with the tools and techniques in project management in the energy industry. This course will give students the opportunity to understand and apply the components in project management i.e. integration, scope, time, cost, quality, resource, risk, procurement and HSE. Students will also be able to apply relevant tools and techniques to manage energy projects in a cost effective manner.

Course Code	Module	Credit Hour
OAU 5013	Data Analytics	3 credits
This course explores key data analysis techniques, which can be applied to massive datasets to enable real-time decision making. In particular, we examine the software tools that make possible the efficient analysis of data in near real time. Students are expected to make use of said tools to design highly scalable systems that can process and analyze big data for a variety of scientific, social, and environmental challenges.

Course Code	Module	Credit Hour
OAB 5244	Industrial-Based Project I	4 credits
The module allows each student to work independently on industry-based projects under the supervision of a faculty member and/or a supervisor from the industry. The student is expected to review the subject, propose an experimental / analytical plan and follow that through to feasibility study, investigation, design / simulation, test and implementation. Each student must prepare a comprehensive technical report, present and demonstrate findings and results of the project work.

Course Code	Module	Credit Hour
OAB 5316	Research Project II	6 credits
The module allows each student to work independently on industry-based projects under the supervision of a faculty member and/or a supervisor from the industry. The student is expected to review the subject, propose an experimental / analytical plan and follow that through to feasibility study, investigation, design / simulation, test and implementation. Each student must prepare a comprehensive technical report, present and demonstrate findings and results of the project work.

Contact

Programme Manager

Dr. Kee Kok Eng

Email: keekokeng@utp.edu.my

Direct Line: +6053687151

Academic Executive

Ms Farah Abdul Latif

Email: farahlatif@utp.edu.my

Direct Line: +6053687030

General Inquiries

Ms Nurul Asmira Sulaiman

Email: asmira.sulaiman@utp.edu.my

Direct Line: +6053688192

FAQ

Q1. How the ODL classes be held?

A1. All the ODL course materials shall be accessible online in ULEARX platform where the students can learn from anytime, anywhere and anyhow at your self-study pace amidst work commitment. Students may also attend online live classes by joining MST, or watch the session recordings later.

Q2. How will the Industry-based project be done online?

A2. The proposed research project can be experiment/simulation or corrosion failure investigation case that is closely related to your professional line of work, so that the student can contribute to the research element of the project.

Q3. What does it mean by minimum study duration of 12 months to maximum 36 months?

A3: Up to the student’s study pacing and work commitment, student can plan on what and how many courses to enrol in each semester, so that he/she can complete the MSc within these study durations.

Master by Coursework

Master by Coursework (ODL)

Postgraduate