FACULTY OF CHEMICAL ENGINEERING UiTM (PULAU PINANG)
Transcription
FACULTY OF CHEMICAL ENGINEERING UiTM (PULAU PINANG)
FACULTY OF CHEMICAL ENGINEERING UiTM (PULAU PINANG) “TogeTher we inspire oThers…” UNDERGRADUATE STUDENTS’ HANDBOOK 2016 i TABLE OF CONTENT Contents Page Table of Content i 1.0 Introduction to Faculty 1.1 Message from the Coordinator Programme 1.2 Faculty of Chemical Engineering in Brief 1.3 Overview of Chemical and Environmental Engineering 1.4 Job Description and Responsibilities of a Chemical and Environmental Engineer 1.5 Organization Chart 1.6 Contact Person 1.6.1 Academic Staff 1.6.2 Non-Academic Staff 1 2 2 3 4 5 1.7 University Motto, Philosophy, Vision, Mission and Objectives 1.8 Faculty of Chemical Engineering’s Vision, Mission and Quality Objectives Statement 1.9 Definition of Terms 6 7 8 2.0 Faculty of Chemical Engineering, UiTM Programme Educational Objective 2.1 Programme Educational Objectives 2.2 Programme Outcomes 2.3 Programme Outcomes (PO) and Programme Educational Objectives (PEO) Matrix 10 11 12 3.0 Bachelor of Engineering (Hons) Chemical with Environment (EH224) 3.1 Programme structure (March 2015 and September 2015 Intake- Plan ID: 6099) 3.1.1 Programme Core Courses (March 2015 – September 2015 Intake) 3.1.2 List of Courses That Qualify for Credit Exemption (Diploma Students – March 2015 and September 2015 Intake) 3.2 Programme structure (March 2016 and September 2016 Intake – Plan ID: 6276) 3.2.1 Programme Core Courses (March 2016 – September 2016 Intake) 13 14 29 30 31 4.0 Important Academic Information 4.1 Plagiarisms: Statement 4.2 Requirements of class attendance 4.3 Awards of degree 4.4 Class of degree 4.5 Vice Chancellor’s award 4.6 Dean’s list award 4.7 Marking scheme 47 47 48 48 49 49 49 i Contents Page 5.0 Student Facilities 5.1 Library 5.2. Computer Lab 5.3. Laboratories 5.3.1. Laboratory list of person in-charge and equipments 5.3.2. General Laboratory Safety Procedures and Rules FKK STUDENT HANDBOOK (2016) EDITORIAL BOARD PATRON Assoc. Prof. Dr. Haji Mohd. Fozi Ali ADVISOR Dr. Nor Aida Zubir EDITOR Nur Alwani Ali Bashah COMMITEE MEMBERS Mohamed Syazwan Osman Rasyidah Alrozi Mohd Azahar Mohd Ariff ii 50 50 51 51 54 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.0 INTRODUCTION TO FACULTY 1.1. Message from the Coordinator Programme Assalamualaikum and Good Day, On behalf of faculty members, I’m real privileged and immensely honoured to welcome all freshmen to Faculty of Chemical Engineering, UiTM Cawangan Pulau Pinang. I congratulate all of you for having secured a seat in this faculty that always strives for excellence in all areas of teaching and research. With your fresh and young minds that are ready to start a new and exciting journey of your life. We are proud to have you on board and delighted to assist you in anything you need. The faculty offers you with a carefully designed programme in which chemical engineering and environmental engineering education are well integrated. The programme curriculum focuses on the application of chemical engineering principles to the study of environmental problems such as water, air and solid waste pollution.in facts, it also incorporates the elements of soft skills such as leaderships, communications, critical and problem-solving skills and teamwork which are essential in the real working environment. With a close and positive relationship between student and faculty in place, you will be nurtured and inspired throughout the programme within a supportive learning environment. Nonetheless, our relentless effort in ensuring a high-quality education for our students would not be successful without your effort to make it happen. Your full commitment to participate in all the active learning activities are what matters most. This is the first step towards fulfillment of your dreams and for the 3 or 4 years that you are here, we hope that you can gather the best of knowledge and experience. You are the future leaders who will contribute to shaping tomorrow’s world and allow us to be part of it. Let us do this together towards a promising and successful future. NOR AIDA ZUBIR (DR.) Coordinator Programme EH224 1 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.2 Faculty of Chemical Engineering in Brief. Faculty of Chemical Engineering (FKK) was established in UiTM Penang Campus in January 2005, which was the first branch campus offers diploma courses in Chemical Engineering, has begun to receive the first batch of students in June 2005. Starting with only one academic staff, Faculty of Chemical Engineering currently has a total of 20 academic staff and 5 non-academic staff. However, the number is expected to increase in line with the increasing number of students each year. In terms of teaching facilities, faculty has a few laboratories for hands on activities such as chemical engineering lab, computer lab, research lab, process control lab and instrument lab. At present, the Faculty of Chemical Engineering UiTM Penang offers Bachelor of Chemical Engineering (Environment) with honours since March 2014. Curriculum developed and continuously updated in line with the needs of industry for the workforce with the technical skills and having strong ethical values. 1.3 Overview of Chemical and Environmental Engineering. A chemical and environmental engineer is involved in the design, development, construction and operation of industrial processes for the production of a diverse range of products, as well as in commodity and specialty chemicals. Relevant industries include oil and gas, pharmaceuticals, energy, water and wastewater treatment, food and drink, plastics and toiletries. Modern chemical engineering is also concerned with pioneering valuable new materials and techniques, such as nanotechnology, fuel cells and biomedical engineering. The field of chemical and environmental engineering may focus on one of the following: researching new products from trial through to commercialization; managing scale-up processes from plant to full industrial-scale manufacturing; improving product lines; modifying the processing plant that produces the products; conduct hazardous-waste management studies; improve recycling, waste disposal, public health, water and air pollution control and designing and commissioning new plants. 2 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.4 Job Description and Responsibilities of a Chemical and Environmental Engineer The activities as chemical engineers are extremely diverse, depending on the role and the sector, which include: Working closely with process chemists and control engineers to ensure the process plant is set up to provide maximum output levels and efficient running of the production facility. Designing plant and equipment configuration so that they can be readily adapted to suit the product range and the process technologies involved, taking environmental and economic aspects into account. Instituting scale-up and scale-down processes including appropriate changes to equipment design and configuration. Assessing options for plant expansion or reconfiguration by developing and testing process simulation models. Designing, installing and commissioning new production plants, including monitoring developments and troubleshooting. Optimizing production by analyzing processes and compiling de-bottleneck studies; Applying new technologies. Ensuring that potential safety issues related to the project operator, the environment, the process and the product are considered at all stages. Test, operate and modify equipment used in the process to prevent or clean up environmental pollution. Design projects that lead to environmental protection, such as water reclamation facilities, air pollution control systems and operation that convert waste to energy. Chemical and environmental engineers from the faculty can engage their skills across these many apparently disparate industries because of the breadth and depth of their training in the engineering core and the enabling sciences. Chemical and environmental engineers can tackle a range of problems based on their solid foundation in quantitative logical thinking and problem solving. It is not surprising, therefore, that chemical and environmental engineers can have promising careers in the following areas: Absorption & Adsorption Engineer, Anatomist, Biochemist, Biophysicist, Botanist, Brewery Processing, Chemical Design Engineer, Chemical Equipment Sales Engineer, Chemical Test Engineer, Cytologist, Environmental Epidemiologist, Facilities Design Engineer, Food Technologist, Geneticist, Histopathologist, Microbiologist, Nuclear Engineer, Petroleum Engineer, Pharmacologist, Physiologist, Polymer Engineer, Process Engineer, Public Health, Research Engineer, EHS Engineer, Water and Wastewater Engineer, Facility Engineer, Environmental Consultant, DOE Officer, Research Officer, Project Engineer, Sales Engineer, Control Engineer, Environmental scientist and Academician. 3 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.5 Organization Chart 4 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.6 Contact Person 1.6.1 Academic Staff No. Name 1 Nor Aida Zubir (Dr.) 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 Chang Siu Hua (Dr.) Hawaiah Imam Maarof Leong Soo Kwan Muhammad Zahiruddin Ramli Nur Fadzeelah Abu Kassim Norhusna Mohamad Nor (Dr.) Fariza Ismail (Dr.) Wan Zuraida Wan Kamis (Dr.) Mohd Azahar Mohd Ariff (Ir.) Hamizura Hassan Mohamed Syazwan Osman Noorzalila Muhammad Niza Norhaslinda Nasuha Nur Alwani Ali Bashah Nurulhuda Amri Rasyidah Alrozi Faraziehan Senusi Siti Aminah Md Ali Siti Fatimah Binti Abdul Halim Position Programme Coordinator /Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Senior Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Lecturer Room Number Contact Number FKK KP Room BKBA 4.41 04-3822652/ 04-3822541 BKBA 4.46 Study leave Study leave Study leave BKBA 4.31 BKBA 4.39 BKBA 4.40 BKBA 4.44 BKBA 4.43 Study leave Study leave BKBA 4.44 Study leave BKBA 4.39 BKBA 4.40 BKBA 4.45 Study leave BKBA 4.39 BKBA 4.38 04-3822546 04-3822531 04-3822539 04-3822540 04-3822544 04-3822543 04-3822538 04-3822544 04-3822539 04-3822540 04-3822545 04-3822545 04-3822546 04-3822538 1.6.2 Non-Academic Staff No. 1 2 3 4 5 Name Khaironniswah Abdul Samad Noor Faezah Md Desa Salamiah Abdul Hamid Saiful Anuar Roswan Siti Maznah Hj Sulaiman Position Assistant Science Officer Assistant Science Officer Assistant Science Officer Lab Assistant Lab Assistant 5 Room Number Contact Number Instrument Lab Chemical Engineering Lab 04-3822433 Research Lab Research Lab Research Lab 04-3822434 04-3822435 04-3822434 04-3822434 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.7 University Motto, Philosophy, Vision, Mission and Objectives Motto Endeavour, religious, dignified Philosophy Every individual has the ability to attain excellence through the transfer of knowledge and assimilation of moral values so as to become professional graduates capable of developing knowledge, self, society and nation. Vision To establish uitm as a premier university of outstanding scholarship and academic excellence capable of providing leadership to bumiputeras’s dynamic involvement in all professional fields of world-class standards in order to produce globally competitive graduates of sound ethical standing. Mission To enhance the knowledge and expertise of bumiputeras in all fields of study through professional programmes, research work and community service based on moral values and professional ethics Objectives 1. To provide maximum opportunities for bumiputeras to pursue professionally-recognised programmes of study in science, technology, industry, business, arts and humanities. 2. To provide quality and innovative programmes of study relevant to current market needs and customer demands, and in line with policies of national development. 3. To establish a human resource development programme as a tool for the assimilation of a value system within the university community. 4. To ensure that UiTM graduates are adequately prepared to join the local as well as the global workforce. 5. To establish UiTM as a centre of excellence that is accountable for the effective and efficient management of its human resources, finances and assets in order to achieve its educational objectives, while playing its role as a catalyst in community development. 6 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.8 Faculty of Chemical Engineering’s Vision, Mission and Quality Objectives Statement Vision To be the leader in providing the highest standard of learning towards producing ethical and professional chemical engineers. Mission To impart knowledge to students by offering comprehensive chemical engineering programmes through effective teaching and training in line with global technological advancement. Quality objectives statement Faculty of Chemical Engineering, UiTM (Pulau Pinang) is committed to providing quality programmes and ensuring continuous improvement in teaching and learning with the aim of producing excellent professional chemical engineers to meet customers’ demand and in line with UiTM’S vision. In supporting the vision and mission, the faculty’s quality objectives are as follows: 1. To ensure 300 student enrolment by 2020. 2. To achieve academic excellence by: a. Updating the curriculum for every course every three years. b. Ensuring that at least 90% of the Bachelor of Engineering (Hons.) students graduate on time. c. Ensuring at least 5 postgraduate students graduate by 2020 d. Ensuring graduates’ marketability is above 80% (Bachelor of Engineering programme). 3. To achieve research excellence by: a. Ensuring 30 indexed publications are produced by 2020. b. Obtaining research grants with a total value of RM1 million by 2020. 4. To achieve knowledge transfer and commercialization excellence by: a. Ensuring at least 1 commercial product is produced annually by 2020. 7 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1.9 Definition of Terms Programme A programme is an arrangement of modules that are structured for a specified duration and learning volume to achieve the stated learning outcomes, which usually leads to an award of a qualification. An engineering programme whose graduates are acceptable for graduate registration with BEM and for admission to Graduate membership of IEM Subject offered in the programme. A person registered under Section 10(1), Registration of Engineers (Amendment) Act 2002. A person registered under Section 10(2). Registration of Engineers (Amendment) Act 2002. Outcome‐Based Education is an approach that focuses on outcomes, i.e. the achievements of students that are measurable, proven, and can be improved. Programme Educational Objectives are statements that describe the knowledge skills and attitude acquired 3 – 5 years after graduation. Programme Outcomes are statements that describe what Students are expected to know and be able to perform or attain by the time of graduation. These relate to the skills, knowledge, and behaviours that students acquire through the programme. What students will be able to do upon the completion of a course Learning outcomes are statements on what a learner should know, understand and can do upon the completion of a period of study. Accredited Programme Course Graduate Engineer Professional Engineer OBE Outcome‐Based Education PEO Programme Educational Objectives PO/PLO Programme Outcomes CO/CLO Course Outcome LO Learning Outcomes 8 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) MOHE-LOKI MOHE Soft Skill Learning Outcomes (LOKI) Are observable indicators or evidence of actual students’ learning (with direct measures – through students’ knowledge and performance [test papers, projects, demonstrations etc.] or indirect measures – students’ behaviors, attitudes or values [alumni, interviews, focus groups etc.] ) The learning outcomes are: 1. Knowledge 2. Practical Skills 3. Thinking and scientific skills 4. Communication skills 5. Social skills, teamwork and responsibility 6. Values, ethics, moral and professionalism 7. Information management and lifelong learning skills 8. Managerial and entrepreneurial skills 9. Leadership skills SLT Student Learning Time SLE Student Learning Experience SCL Student-Centered Learning Amount of time available per week for learning and teaching activities. These activities include lecture, tutorial, seminar, practical, self-study, retrieval of information, research, fieldwork, as well as preparing for and sitting for an examination The recommended SLT per week varies according to student band and it can range between 40-55 hours. Student Learning Experience comprises the entire educational experience of a student whilst studying for a programme. Student-Centered Learning in OBE means students will be equally responsible for their own learning. Engagement of both students and lecturers will be visible in the teaching and learning process. 9 FACULTY OF CHEMICAL ENGINEERING 2.0 FACULTY OF OBJECTIVES CHEMICAL Student Handbook (2016) ENGINEERING, UiTM PROGRAMME EDUCATIONAL 2.1 Programme Educational Objectives No. PEO Demonstrate professional competencies in chemical and environmental engineering fields / organization. 1. Description 1) Serve as professional role in chemical and environmental engineering field / organization. 2) Apply knowledge / technical competency in performing daily basic work. Performance Indicator /Target 75 % of the graduates should be able to meet one of the criteria listed in PEO 1. 3) Provide solution to overcome / improve design, etc. 4) Provide solution to overcome / address organizational challenges. 5) Venture as successful entrepreneur in chemical and environmental engineering and related field. 2. Engage in effective communication, team work and leadership across organization or surrounding community. 1) Demonstrate the ability to handle interpersonal relationship in multilevel position across organization. 2) Good team player contributing to successful winnings/completion of projects 60 % of the graduates should be able to meet one of the criteria listed in PEO 2. 3) Involve in decision making process within its own capacity 4) Demonstrate the ability to communicate / liaise with the public and related authorities 3. Engage in lifelong learning through professional career development and/or advanced studies. 1) Participate in professional course/training relevant to their career development. 2) Engage in Professional society: BEM, IEM, IChemE, etc. 3) Pursue to higher educational level: master degree, PhD, etc. 4) Participate in studies which lead to personal improvement. 10 30 % of the graduates should be able to meet one of the criteria listed in PEO 3. FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 2.2 Programme Outcomes PO1 Ability to apply knowledge of mathematics, science, engineering fundamentals to solve basic and complex engineering problems in chemical and environmental engineering. PO2 Ability to identify, formulates, analyze and solve complex chemical and environmental engineering problems using the principles of mathematics, applied science and engineering. PO3 Ability to design component, system and process for complex chemical and environmental engineering problems with an appropriate consideration on health, safety, society and environment. PO4 Ability to conduct basic and complex hands-on chemical and environmental investigations using research-based knowledge and method including design of experiment, analysis and interpretation of data to provide valid conclusion. PO5 Ability to utilize modern science, engineering or IT tools and systems to solve chemical and environmental engineering problems. PO6 Ability to assess safety, health, legal and cultural issues in engineering scenarios that affect society. PO7 Ability to demonstrate professional engineering solution in societal and environmental contexts for sustainable development. PO8 Ability to recognize and apply the importance of ethical issues and professional conducts in engineering practice. PO9 Ability to communicate effectively not only with engineers but also with the community at large PO10 Ability to function effectively as an individual as well as in a group with the capacity to be a resourceful person, leader and an effective team member. PO11 Ability to engage in independent and life-long learning. PO12 Ability to manage projects related to chemical and environmental engineering, and entrepreneurial business that involve multidisciplinary roles. 11 FACULTY OF CHEMICAL ENGINEERING 2.3 Student Handbook (2016) Programme Outcomes (PO) and Programme Educational Objectives (PEO) matrix PEO Description PEO1 PO1 PO2 PO3 PO4 PO5 PEO2 PO8 PO9 PO10 PO11 PO12 3.0 PO6 PO7 PEO3 EDUCATIONAL PLAN: BACHELOR OF ENGINEERING (HONS) CHEMICAL WITH ENVIRONMENT (EH224) 12 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 3.1 Programme Structure (March 2015 and September 2015 Intake – Plan ID: 6099) SEM 1 PREREQUISITE CODE COURSE NAME CATEGORY CR HOUR K T M CTU551 Islam and Asian Civilization Comm/Hum/ Eth 2 2 - - EET699 English Exit Test Comm/Hum/ Eth 0 - - - ELC400 Preparatory College English Comm/Hum/ Eth 2 2 - - HBU111 National Kesatria I Co-cu 1 1 - - MAT435 Calculus for Engineers AS/Math/Com 3 3 1 - CEV401 Introduction to Chemical Engineering Eng 3 3 1 - CEV402 Engineering Draw ing Eng 1 0 - 2 CEV414 Fluid Mechanics for Chemical Engineer Eng 3 3 1 - CEV415 Chemistry for Chemical Engineer Eng 3 3 1 - TOTAL 2 3 4 5 6 1 1 - - 3 3 1 - Eng Env 3 3 1 - Thermodynamics Eng 3 3 1 - CEV421 Introduction to Waste Management Eng Env 3 3 1 - CEV422 Material Balances Eng 3 3 1 - HBU121 National Kesatria II Co-cu MAT455 Further Calculus for Engineers AS/Math/Com CEV420 Basic Environmental Sciences CEV403 MAT435 TOTAL 16 HBU121 1 1 - - 2 2 - - 2 2 - 3 HBU131 National Kesatria III Co-cu TAC401 Introductory Arabic (Level I) Comm/Hum/ Eth ELC501 English for Critical Academic Reading Comm/Hum/ Eth CEV434 Environmental Laboratory Eng Env 1 - - CEV430 Heat Transfer Eng 3 3 1 CEV431 Chemical Engineering Laboratory Eng 1 CEV432 Energy Balances Eng CEV411 Mass Transfer Eng ELC400 CEV422 2 2 1 - 3 3 1 - TOTAL 15 TAC401 Introductory Arabic (Level II) Comm/Hum/ Eth 2 2 - - CEV631 Leadership and Professional Ethics for Engineers Eng 3 3 - - CEV413 Physico-Chemical Wastew ater Treatment Eng Env 3 3 1 - CEV440 Chemical Reaction Engineering Eng 3 3 1 - CEV623 Numerical Methods and Optimization Eng 3 2 - 2 CEV407 Chemical Engineering Thermodynamics Eng CEV403 3 3 1 - TOTAL 17 TAC451 TAC501 Introductory Arabic (Level III) Comm/Hum/ Eth 2 2 - - QMT500 Statistics For Engineering AS/Math/Com 3 3 1 - CEV423 Biological Processes in Wastew ater Treatment Eng Env 3 3 1 - CEV501 Separation Process Eng 3 3 1 - CEV523 Solid Waste Management and Air Pollution Control Eng Env 3 3 1 - CEV601 Materials and Mechanical Design of Process Equipment Eng 3 3 1 - CEV503 Computational Process Simulation Eng 1 - - 3 ELC590 English for Oral Presentations Comm/Hum/ Eth - ENT600 Technology Entrepreneurship Mgt/Law /Acc CEV544 Process Control and Instrumentations CEV633 CEV654 CEV452 TOTAL 18 ELC501 2 2 - 3 3 - - Eng 4 3 1 3 Engineering Economics and Project Management Eng 3 3 1 - Process Hazard Analysis and Safety Eng 3 3 - - Unit Operations Laboratory Eng 1 - - 3 Industrial Training Eng 4 - - - CEV602 Plant Design Eng 4 3 1 - CTU555 Malaysian History Comm/Hum/ Eth 2 2 - - CEV444 Instrumental and Environmental Analysis Eng Env 3 2 - 3 CEV651 Final Year Project I Eng 3 - - - TOTAL 8 3 TAC451 Inter CEV645 7 18 CEV663 Design Project Eng CEV504 Particle and Bulk Material Handling Eng Env CEV641 Environmental Impact Assessment and Management Plan CEV652 Final Year Project II TOTAL 16 CEV602 4 - - - 3 3 1 - 3 3 1 - CEV651 3 - - - TOTAL 13 Eng Env Eng 13 16 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 3.1.2 Programme Core Courses (March 2015 – September 2015 Intake) SEMESTER 1 CEV401: INTRODUCTION TO CHEMICAL ENGINEERING Course Outcomes At the end of the course, students should be able to: 1. Explain the basic knowledge in chemical process and evaluate the basic engineering principles to solve chemical engineering problems. (C6). 2. Provide solutions related to the chemical/environmental issues in the context of sustainability principles (C4). 3. Manage project and communication via group project report and oral presentation (C5, A3). Course Description An introductory course in chemical engineering, which includes general basic concepts in chemical engineering, the role of chemical engineering, process equipment, utilities and pollution issues related to chemical engineering. CEV402: ENGINEERING DRAWING Course Outcomes At the end of the course, students should be able to: 1. Identify, construct and demonstrate proficiency in the various commands and tools of the drawing software for engineering application (C5). 2. Demonstrate effective responsibility as a leader/team member in developing engineering drawing (C3). Course Description This introductory course deals with basic AutoCAD skills which include drawing the lines, dimensioning, principle of orthographic projection, sectioning, isometric drawing, development of surfaces, assembly drawings and geometrical constructions. The basic plant layout techniques and process flow diagram standard symbols are also included. 14 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV414: FLUID MECHANICS FOR CHEMICAL ENGINEERS Course Outcomes At the end of the course, students should be able to: 1. Apply the fundamental knowledge of fluid mechanics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using the principles of fluid mechanics (C6). Course Description This course is a core subject in most engineering disciplines. The chapters in this course focus on several important topics related to fluid static and fluid dynamics. It is designed to provide the students with the principles of fluid flow through flow meters and pipes. Common rotating devices such as pumps and compressor are also introduced. CEV415: CHEMISTRY FOR CHEMICAL ENGINEERS Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of physical and hydrocarbon chemistry in solving chemical engineering problems (C3). 2. Evaluate the complex engineering problems using the basic principles of physical and hydrocarbon chemistry (C6). 3. Present solutions related to the chemical engineering in report and oral presentation (C5, A2). Course Description The course introduces topics on basic chemistry for chemical engineers. The topics covered include chemical and phase equilibrium, thermochemistry, electrochemistry, chemical kinetics and hydrocarbon. SEMESTER 2 CEV420: BASIC ENVIRONMENTAL SCIENCES Course Outcomes At the end of the course, students should be able to: 1. Explain, apply and evaluate basic knowledge in environmental sciences to solve the environmental problems (C6). 2. Propose solutions for environmental issues using basic knowledge in environmental sciences (C5). 15 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description The course introduces topics on the environmental physical and chemical processes which include science of the atmosphere, water sources and solid earth, urban environment, environmental organic chemistry and biogeochemical cycling of chemicals. CEV403: THERMODYNAMICS Course Outcomes At the end of the course, students should be able to: 1. Apply the principles of thermodynamics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the principles of thermodynamics (C6). Course Description This course includes the following topics; an introduction to thermodynamics, properties of pure substances, First Law of Thermodynamics and its application in closed and open systems, Second Law of Thermodynamics, heat engine and reversed heat engine, entropy, Carnot and Rankine cycles. CEV421: INTRODUCTION TO WASTE MANAGEMENT Course Outcomes At the end of the course, students should be able to: 1. Evaluate suitable approaches in solving related environmental issues based on the principles of waste management (C6). 2. Apply suitable laws and regulations in solving the related environmental issues (C4). 3. Propose suitable solutions in solving complex waste management issues using the concept of sustainability (C5). Course Description This course provides general introduction to the waste management, regulations and effects of waste. It also covers topics for three major of wastes such as solid waste management, wastewater treatment system and air pollution controls. Besides, the sustainable waste management is also presented in this course. 16 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV422: MATERIAL BALANCES Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of material balances in solving chemical engineering problems (C3). 2. Evaluate complex chemical engineering problems using the principles of material balances (C6). 3. Evaluate complex chemical engineering problems using modern simulation tools (C6). Course Description This course educates students on how to identify, formulate and solve mass balances problems based on the concept of conservation of mass as the fundamental tool of engineering analysis. The topics cover both steady and unsteady state material balances of processes, with and without chemical reaction and various physical properties of the process materials. Calculations on the material balances of ideal and non-ideal / real gases mixture using computational simulation technique also will be introduced. SEMESTER 3 CEV434: ENVIRONMENTAL LABORATORY Course Outcomes At the end of the course, students should be able to: 1. Distinguish the principle of analytical methods in analyzing environmental samples (C4). 2. Conduct experiments on complex environmental analysis based on standard laboratory practices (P3, A3). 3. Summarize the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description This course enables students to apply theoretical concept as well as improving their knowledge on environmental analysis and technical skills through conducting experiments. Concise and accurate writing and reporting skills will also be developed during the course of this module. CEV430: HEAT TRANSFER Course Outcomes At the end of the course, students should be able to: 1. Apply the principles of heat transfer in solving steady state and unsteady state chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the principles of heat transfer (C6) 17 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description This course covers the principles of heat transfer mechanisms. It involves solving problems in designing heat exchanger in chemical process industries. CEV431: CHEMICAL ENGINEERING LABORATORY Course Outcomes Upon completion of this course based on the theoretical and practical principles of chemical engineering thermodynamics and fluid flow, students should be able to: 1. Apply the basic principles of chemical engineering thermodynamics and fluid flow in solving complex chemical engineering problems (C3). 2. Conduct experiments related to chemical engineering thermodynamics and fluid flow concepts in solving complex chemical engineering problems based on standard laboratory practice (P5, A5). 3. Interpret the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description This course involves a series of experiments that deal with the principles of thermodynamic units, as well as fluid flow concept. CEV432: ENERGY BALANCES Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of energy balances in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using the principles of mass and energy balances (C6). 3. Evaluate complex chemical engineering problems using modern simulation tools (C6). Course Description This course is a continuation from the material balance course. The students will be exposed to identify, formulate and solve mass and energy balance problems based on the concept of conservation of mass and energy as the fundamental tool of engineering analysis.The students also will be exposed to the application of chemical engineering simulation software to solve material and energy balances of chemical processes. 18 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV411: MASS TRANSFER Course Outcomes Upon completion of this course, students should be able to: 1. Apply the basic principles of mass transfer and separation processes in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using mass transfer and separation process principles (C6). Course Description This subject introduces the students to one of the fundamental knowledge that the students must acquire in mass transfer and mass transfer operations. The topics covered include the concepts of mass transfer and equipment design for gas absorption, adsorption and drying. SEMESTER 4 CEV631: LEADERSHIP AND PROFESSIONAL ETHICS FOR ENGINEERS Course Outcomes At the end of the course, students should be able to: 1. Explain the characteristics and actions of great leaders as well as various ethical issue/dilemmas based on principles of leadership and professional ethics, respectively (C6). 2. Present proposal and findings of community program using word and power point processor, respectively, with proper organization of writing and good quality of presentation materials (C5, A5). 3. Demonstrate responsibility as a leader/team member in performing task towards both team members and community based on professional and ethical practice (P5, A5). Course Description This course consists of three (3) parts. The first part is to introduce on the engineering leadership. The second part concentrates on the “Thoughts and Policies of Tun Dr. Mahathir Mohamed”, the prominent leader of Malaysia. The third part will expose the students to the professional ethics concepts that can be applied in real engineering world. CEV413: PHYSICO-CHEMICAL WASTEWATER TREATMENT Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of physico-chemical processes to solve problem in wastewater treatment (C3). 19 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 2. Evaluate the complex engineering problems in wastewater treatment using the principles of physico-chemical processes (C6). 3. Propose design solutions to the complex engineering problems using the principles of physico-chemical processes (C5). Course Description This course provides the physical unit operations and unit processes utilized in the treatment of wastewater. It also covers topics including: basic of physico-chemical wastewater treatment, physical treatments and process units such as screening, mixing, filtration, aeration, stripping and adsorption. This course also comprises relevant topics on chemical treatments such as flocculation, coagulation, chemical precipitation, disinfection and advanced wastewater treatments. CEV440: CHEMICAL REACTION ENGINEERING Course Outcomes At the end of the course, students should be able to: 1. Evaluate complex chemical engineering problems using the principles of chemical reaction (C6). 2. Evaluate complex chemical engineering problems using the principles of reactor design (C6). Course Description This course enable students to develop understanding of the fundamentals of reaction engineering and reactor design. The students learn how to apply stoichiometry in combination with the rate laws to design a chemical reactor that produces the desired conversion of reactants. The design of batch reactor, various type of continuous reactors, isothermal reactor, and catalytic reactor are discussed. This course also covers the different methods of determining the rate law, multiple reactions and catalytic reactions. CEV623: NUMERICAL METHODS AND OPTIMIZATION Course Outcomes Upon completion of this course, students should be able to: 1. Apply the principles of numerical methods in solving the mathematical problems related to chemical engineering (C3). 2. Solve complex chemical engineering problems using the principles of numerical methods (C6). 3. Develop mathematical programs using modern simulation tools in solving complex chemical engineering problems (C5). 20 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description This course provides basic knowledge of numerical methods with the aid of MATLAB and MS Excel including root-finding, elementary numerical linear algebra, solving systems of linear equations, curve fitting, numerical solution to ordinary equations and optimization. The numerical techniques acquired in this course will enable students to solve chemical engineering problems. CEV407: CHEMICAL ENGINEERING THERMODYNAMICS Course Outcomes At the end of the course, students should be able to: 1. Apply the advanced principles of thermodynamics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the advanced principles of thermodynamics (C6). Course Description This course discusses thoroughly the principles of chemical engineering thermodynamics (thermodynamics of mixtures, vapor-liquid equilibria, ideal and real gas/solution, chemical reaction equilibria) and the details of their applications in chemical engineering processes. SEMESTER 5 CEV423: BIOLOGICAL PROCESSES IN WASTEWATER TREATMENT Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of biological processes to solve problems in wastewater treatment (C3). 2. Evaluate the complex engineering problems in wastewater treatment using the principles of biological processes (C6). 3. Propose the suitable solution in solving the complex engineering problem related to wastewater treatment using the concept of sustainability (C5). Course Description This course covers theoretical and practical aspects of biological processes in wastewater treatment engineering applications. The major focus of this course is on the processes used in wastewater and sludge treatments which are activated sludge and anaerobic digestion. Therefore, the fundamental concept of bioreaction engineering is used to support the design of the biological process unit or bioreactor. Besides, others type of sludge treatment method, composting, reuse and disposal of sludge are also presented in this course. 21 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV501: SEPARATION PROCESSES Course Outcomes At the end of the course, students should be able to: 1. Apply separation process principles of unit operation in solving chemical/environmental engineering problems (C3). 2. Evaluate complex chemical/environmental engineering problems using mass transfer and separation process principles (C6). Course Description The course introduces topics on separation as unit operation in the application of solving the environmental problems using distillation, liquid-liquid extraction, leaching and membrane separation. CEV523: SOLID WASTE MANAGEMENT AND AIR POLLUTION CONTROL Course Outcomes At the end of the course, students should be able to: 1. Explain the principles of solid waste management and air pollution control to solve environmental issues (C2). 2. Evaluate the complex engineering problems in solving environmental issues based on the principles of solid waste management and air pollution control (C6). 3. Evaluate suitable solutions in solving issues related to solid waste management and air pollution control using the concept of sustainability (C6). Course Description This course provides fundamental concept of solid waste management and basic principles of air pollution control and measurement systems. This course also comprises the process engineering principles especially in selecting and designing the solid waste disposal and air pollution control systems. In addition, the relevant topic such as conversion of waste to energy, treatment and disposal of industrial, hazardous and clinical wastes are also presented. CEV601: MATERIALS AND MECHANICAL DESIGN OF PROCESS EQUIPMENT Course Outcomes At the end of the course, students should be able to: 1. Explain the mechanical properties of materials in solving complex problems related to equipment design (C2). 2. Evaluate the principles of material properties in solving problems related to process equipment (C4). 22 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 3. Evaluate complex problems related to equipment design using the principles of material and mechanical properties (C6). Course Description This course imparts the knowledge of the mechanical properties of materials needed for designing engineering equipment. The topics covered include theories of failure, mechanical design of pressure vessel, as well as other process equipment and supports. CEV503: COMPUTATIONAL PROCESS SIMULATION Course Outcomes Upon completion of this course, students should be able to: 1. Distinguish suitable unit operations in the simulation tools and identify process specification for chemical process simulation (C4). 2. Evaluate the simulation findings of complex chemical engineering problems based on the desired outputs (C6). Course Description This course exposes students to chemical process simulations by using computational process simulation technique. The simulation work involves simulation of important chemical engineering equipment such as reactors, separation units and heat transfer units. The course also requires students to exercise their knowledge on the chemical and phase equilibrium, chemical kinetics, functions of equipment for specific process, selection of process flow conditions and process plant optimization, by looking into product yield and waste minimization. SEMESTER 6 CEV544: PROCESS CONTROL AND INSTRUMENTATION Course Outcomes At the end of the course, students should be able to: 1. Examine the principles of instrumentation measurement and apply the suitable mathematical principles in control systems (C4). 2. Evaluate complex engineering problems using suitable control systems approaches (C6). 3. Conduct the experiments on control systems based on the principles of control systems (P3). 4. Present the experimental findings in reports with good organization and articulation of data (C4). Course Description This course begins with a discussion of principle concept, theory and terminologies of process control. It moves on to discuss the product hardware and software that 23 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) implement the theory, and then proceeds to describe instrumentation examples and the system-design approaches suitable for variety of production processes. Exposure and hands-on training using appropriate software to simulate processes such as MATLAB as well as real process simulators are also introduced. CEV633: ENGINEERING ECONOMICS AND PROJECT MANAGEMENT Course Outcomes At the end of the course, students should be able to: 1. Evaluate the principles of engineering economy and project management in solving chemical engineering/environmental problems (C6). 2. Analyze the complex engineering problems using modern engineering tools (C4). 3. Propose suitable solutions to the complex engineering problems using the engineering economy and project management principles (C5). Course Description This course comprises topics that cover the principles, basic concepts and methodology of engineering economy. The topics also emphasize on the engineering economic analysis and enable rational decision making related to cost in environmental engineering practices. Furthermore, the course will provide basic concepts and principles of project management. Planning, scheduling, monitoring, controlling, evaluating and terminating the project are also emphasized in this course. CEV654: PROCESS HAZARD ANALYSIS AND SAFETY Course Outcomes At the end of the course, students should be able to: 1. Describe and explain the basic principles of process hazard analysis and safety related to the chemical engineering / environmental issues (C2). 2. Evaluate the chemical engineering / environmental issues using the basic principles of process hazard analysis and safety (C6). 3. Present solutions related to the chemical engineering / environmental issues using the basic principles of process hazard analysis and safety in a report (C5). Course Description The course offers a detailed study on applications of engineering principles to process safety, hazards analysis and mitigation. It covers issues relevant to chemical process safety and environment covering Occupational Safety and Health laws and regulations, other regulations, the regulatory process, methods and techniques for proactively identifying, assessing and eliminating or controlling hazards to acceptable levels. The course also discusses the national and international safety and health regulatory provisions, and principles and techniques for identifying, analyzing and controlling hazards which are required on any process plant to ensure safe and efficient operation. The course also emphasizes on risk assessment and management, maintenance 24 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) program, emergency response planning, occupational safety and health management system and relevant case studies. CEV452: UNIT OPERATIONS LABORATORY Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of unit operations in solving the chemical engineering/environmental problems (C3). 2. Conduct experiments related to unit operations in solving complex chemical engineering/environmental problems based on standard laboratory practice (P5, A5). 3. Interpret the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description Unit Operation Laboratory enable students to apply theoretical concept as well as improving their knowledge and technical skills through conducting experiments. Concise and accurate writing and reporting skills will also be developed during the course of this module. SEMESTER 7 CEV602: PLANT DESIGN Course Outcomes At the end of the course, students should be able to: 1. Apply the chemical engineering fundamentals and engineering judgement in a design project (C4). 2. Evaluate complex plant design that is technically feasible, safe and environmentally acceptable based on the project requirements (C6). 3. Evaluate complex plant design that is technically feasible and cost-effective based on the project requirements (C6). Course Description This course covers the chemical process and plant design through topics relating to the flow sheeting, product design, heuristic and guidelines in design, preliminary sizing of equipment and pinch technology in environmental engineering. 25 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV444: INSTUMENTAL AND ENVIRONMENTAL ANALYSIS Course Outcomes At the end of the course, students should be able to: 1. Evaluate the related environmental problems based on the basic principles of instrumental and environmental analysis (C6). 2. Conduct experiments related to instrumental and environmental analysis in solving environmental problems based on standard laboratory practice (P4, A3). 3. Present the experimental findings in a report with proper organization and articulation of data (C5). Course Description This course introduces topics on qualitative and quantitative analysis for environmental samples using spectroscopy and chromatography methods. Besides, this course also covers the analysis methods for water, soil and air samples. Analytical method, analytical data and sampling procedures will be introduced as well in this course. CEV651: FINAL YEAR PROJECT I Course Outcomes At the end of the course, students should be able to: 1. Produce a final report in compliance to the professional ethical standard using suitable software (A3). 2. Present the findings of research works in oral presentations (C5, A4). 3. Demonstrate effective engagement in the research works and activities (A3). 4. Justify the research proposal and activities in the form of reports with proper organization and articulation of data (C6). Course Description In this course each student will be required to prepare and deliver an oral and written report. A series of lectures on research methodology will be given as guidance for the students. The sequence of the report is based on a systematic development of the thesis. The subjects of these reports are: 1. An introduction to the general topic 2. A literature review of the specific topic of the project or thesis 3. A thesis proposal that should include the detailed scope and plan of the research. Each of these reports should contain primary material that will be included in the final thesis report, which will be delivered at the conclusion of the research. 26 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) SEMESTER 8 CEV663: DESIGN PROJECT Course Outcomes At the end of the course, students should be able to: 1. Evaluate a complex plant design that is technically feasible and cost effective based on the project requirements (C6). 2. Evaluate a complex plant design that comply to environmental and safety standard based on the project requirements (C6). 3. Present a final design project through oral presentation with proper organization and articulation of data (C5, A5). 4. Demonstrate responsibility as an effective team member in performing task based on professional, integrity and ethical practice (A5). 5. Incorporate the knowledge and understanding of engineering principles and managing principles to manage a project in multidisciplinary environments (C5). Course Description The design project is the pinnacle of chemical engineering program. Students are required to carry out a project on topics related to chemical/environmental engineering. The design project is focusing on the literature study of the project which includes process background, environmental and safety consideration, mass and energy balance for the plant, process simulation, waste minimization and water pinch, a detailed process design for unit operation and economic analysis. CEV504: PARTICLE AND BULK MATERIAL HANDLING Course Outcomes Upon completion of this module, students should be able to: 1. Evaluate the basic principles of particle and bulk solid properties in solving chemical engineering/environmental problems (C6). 2. Evaluate the complex engineering problems in particle and bulk solid handling using the design principles of equipment. (C6). 3. Propose suitable equipment in solving problems related to solid handling and processes with proper consideration on sustainability (C5). Course Description The syllabus introduces basic topics on processing and handling of particles and powders. The topics included have been selected to give coverage of broad areas within particle technology: characterization, powder processing, particle formation, fluidparticle separation, bulk solid handling and powder transport. 27 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV641: ENVIRONMENTAL IMPACT ASSESSMENT AND MANAGEMENT PLAN Course Outcomes At the end of the course, students should be able to: 1. Explain the concepts of environmental impact assessment (EIA) and environmental management plan (EMP) in solving the chemical engineering / environmental problems (C2). 2. Evaluate the complex chemical engineering / environmental issues using the concepts of EIA and EMP (C6). 3. Present suitable solutions related to the chemical / environmental issues in report and oral presentation (C5, A5). Course Description This course introduces the topics of EIA, EMP and also the subsequent contribution worthy of the complete analysis to the decision making process. Besides, it also provides the fundamental essentials of impact assessment in all impact categories and also the tool to improve environmental performance. CEV652: FINAL YEAR PROJECT II Course Outcomes At the end of the course, students should be able to: 1. Conduct experiments/simulation using suitable research tools based on standard laboratory/simulation practices (P6, A5). 2. Produce a final report in compliance to the professional ethical standard using suitable software (A5). 3. Present the findings of research works in oral presentation (C5, A5). 4. Compose a final report and manuscript based on the research findings with proper organization and articulation of data (C6). Course Description This course is the continuation from Research Project I. Each student is required to carry out a research-based project at which at the end of the investigation, the student need to produce a written report and present the project details and findings. Intersession CEV645: INDUSTRIAL TRAINING Course Outcomes At the end of the course, students should be able to: 28 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1. Present and communicate effectively with fellow workers and supervisors in performing the assigned duties/tasks (A3). 2. Demonstrate effective organizational skills and team-work in performing the assigned duties/tasks (P4). 3. Present the outcomes of internship activities in reports with good organization and articulation of data (C6). 4. Demonstrate good responsibility in internship activities with high level of integrity, ethical and accountability (A5). Course Description Industrial training is an important component in engineering curriculum. Theories learnt in all the core and non-core courses will have to be applied into the real working environment in environmental industries. Prior to the actual training in industries, students are trained to make job applications before stepping into the real working environment. 3.1.2 SEM PREREQUISITE CR HOUR K T M Comm/Hum/ Eth 2 2 - - Comm/Hum/ Eth 2 2 - - National Kesatria I Co-cu 1 1 - - National Kesatria II Co-cu 1 1 - - Co-cu 1 1 - - 3 1 - CODE COURSE NAME CATEGORY CTU551 Tamadun Islam dan Asia ELC400 Preparatory College English HBU111 HBU121 HBU131 PC List of Courses That Qualify for Credit Exemption (Diploma Students – March 2015 and September 2015 Intake) National Kesatria III CEV415 Chemistry for Chemical Engineers Eng 3 CEV401 Introduction to Chemical Engineering Eng 3 3 1 - CEV402 Engineering Draw ing Eng 1 0 - 2 CEV414 Fluid Mechanics for Chemical Engineers Eng 3 3 1 - CEV430 Heat Transfer Eng 3 3 1 - CEV501 Separation Process Eng 3 3 1 - CEV422 Material Balances Eng 3 3 1 - CEV403 Thermodynamics Eng 3 3 1 CEV431 Chemical Engineering Laboratory Eng 1 MAT435 Calculus II For Engineers AS/Math/Com 3 TOTAL 29 33 3 3 1 - FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 3.2 Programme Structure (March 2016 and September 2016 Intake – Plan ID: 6276) 30 FACULTY OF CHEMICAL ENGINEERING SEM CODE 1 Student Handbook (2016) COURSE NAME CATEGORY PREREQUISITE 3 4 5 3.2.1 - Islam and Asian Civilization Comm/Hum/ Eth English Exit Test Comm/Hum/ Eth 0 - - - HBU111 National Kesatria I Co-cu 1 1 - - MAT435 Calculus for Engineers AS/Math/Com 3 3 1 - CEV401 Introduction to Chemical Engineering Eng 3 3 1 - CEV402 Engineering Draw ing Eng 1 0 - 2 CEV414 Fluid Mechanics for Chemical Engineer Eng 3 3 1 - CEV415 Chemistry for Chemical Engineer Eng 3 3 1 - 16 HBU121 National Kesatria II Co-cu 1 1 - - TAC401 Introductory Arabic (Level I) Comm/Hum/ Eth 2 2 - - MAT455 Further Calculus for Engineers AS/Math/Com 3 3 1 - CEV420 Basic Environmental Sciences Eng Env 3 3 1 - CEV403 Thermodynamics Eng 3 3 1 - CEV421 Introduction to Waste Management Eng Env 3 3 1 - CEV422 Material Balances Eng 3 3 1 - MAT435 TOTAL 18 HBU131 National Kesatria III Co-cu HBU121 1 1 - - TAC451 Introductory Arabic (Level II) Comm/Hum/ Eth TAC401 2 2 - - ELC501 English for Critical Academic Reading Comm/Hum/ Eth ELC400 2 2 - - CEV434 Environmental Laboratory Eng Env 1 - - 3 CEV430 Heat Transfer Eng 3 3 1 CEV431 Chemical Engineering Laboratory Eng 1 CEV432 Energy Balances Eng CEV411 Mass Transfer Eng CEV422 3 2 2 1 - 3 3 1 - TOTAL 15 TAC451 TAC501 Introductory Arabic (Level III) Comm/Hum/ Eth 2 2 - - CEV631 Leadership and Professional Ethics for Engineers Eng 3 3 - - CEV413 Physico-Chemical Wastew ater Treatment Eng Env 3 3 1 - CEV440 Chemical Reaction Engineering Eng 3 3 1 - CEV623 Numerical Methods and Optimization Eng 3 2 - 2 CEV407 Chemical Engineering Thermodynamics Eng CEV403 3 3 1 - TOTAL 17 ELC590 English for Oral Presentations Comm/Hum/ Eth 2 2 - - STA408 Statistics For Science and Engineering AS/Math/Com 3 3 1 - CEV423 Biological Processes in Wastew ater Treatment Eng Env 3 3 1 - CEV501 Separation Process Eng 3 3 1 - CEV523 Solid Waste Management and Air Pollution Control Eng Env 3 3 1 - CEV601 Materials and Mechanical Design of Process Equipment Eng 3 3 1 - CEV503 Computational Process Simulation Eng 1 - - 3 ENT600 Technology Entrepreneurship Mgt/Law /Acc 3 3 - - EWC661 English for Report Writing Comm/Hum/ Eth 2 2 - - CEV544 Process Control and Instrumentations Eng 4 3 1 3 CEV633 Engineering Economics and Project Management Eng 3 3 1 - CEV654 Process Hazard Analysis and Safety Eng 3 3 - - CEV452 Unit Operations Laboratory Eng 1 - - 3 Industrial Training Eng 4 - - - CEV602 Plant Design Eng 4 3 1 - CTU555 Malaysian History Comm/Hum/ Eth 2 2 - - CEV444 Instrumental and Environmental Analysis Eng Env 3 2 - 3 CEV651 Final Year Project I Eng 3 - - - ELC590 TOTAL 8 M - EET699 Inter CEV645 7 T 2 CTU551 TOTAL 6 K 2 TOTAL 2 CR HOUR CEV663 Design Project Eng CEV504 Particle and Bulk Material Handling Eng Env CEV641 Environmental Impact Assessment and Management Plan CEV652 Final Year Project II 16 TOTAL 16 CEV602 4 - - - 3 3 1 - 3 3 1 - CEV651 3 - - - TOTAL 13 Eng Env Eng 18 Programme Core Courses (March 2016 – September 2016 Intake) 31 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) SEMESTER 1 CEV401: INTRODUCTION TO CHEMICAL ENGINEERING Course Outcomes At the end of the course, students should be able to: 1. Explain the basic knowledge in chemical process and evaluate the basic engineering principles to solve chemical engineering problems. (C6). 2. Provide solutions related to the chemical/environmental issues in the context of sustainability principles (C4). 3. Manage project and communication via group project report and oral presentation (C5, A3). Course Description An introductory course in chemical engineering, which includes general basic concepts in chemical engineering, the role of chemical engineering, process equipment, utilities and pollution issues related to chemical engineering. CEV402: ENGINEERING DRAWING Course Outcomes At the end of the course, students should be able to: 1. Identify, construct and demonstrate proficiency in the various commands and tools of the drawing software for engineering application (C5). 2. Demonstrate effective responsibility as a leader/team member in developing engineering drawing (C3). Course Description This introductory course deals with basic AutoCAD skills which include drawing the lines, dimensioning, principle of orthographic projection, sectioning, isometric drawing, development of surfaces, assembly drawings and geometrical constructions. The basic plant layout techniques and process flow diagram standard symbols are also included. CEV414: FLUID MECHANICS FOR CHEMICAL ENGINEERS 32 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Outcomes At the end of the course, students should be able to: 1. Apply the fundamental knowledge of fluid mechanics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using the principles of fluid mechanics (C6). Course Description This course is a core subject in most engineering disciplines. The chapters in this course focus on several important topics related to fluid static and fluid dynamics. It is designed to provide the students with the principles of fluid flow through flow meters and pipes. Common rotating devices such as pumps and compressor are also introduced. CEV415: CHEMISTRY FOR CHEMICAL ENGINEERS Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of physical and hydrocarbon chemistry in solving chemical engineering problems (C3). 2. Evaluate the complex engineering problems using the basic principles of physical and hydrocarbon chemistry (C6). 3. Present solutions related to the chemical engineering in report and oral presentation (C5, A2). Course Description The course introduces topics on basic chemistry for chemical engineers. The topics covered include chemical and phase equilibrium, thermochemistry, electrochemistry, chemical kinetics and hydrocarbon. SEMESTER 2 CEV420: BASIC ENVIRONMENTAL SCIENCES Course Outcomes At the end of the course, students should be able to: 1. Explain, apply and evaluate basic knowledge in environmental sciences to solve the environmental problems (C6). 2. Propose solutions for environmental issues using basic knowledge in environmental sciences (C5). 33 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description The course introduces topics on the environmental physical and chemical processes which include science of the atmosphere, water sources and solid earth, urban environment, environmental organic chemistry and biogeochemical cycling of chemicals. CEV403: THERMODYNAMICS Course Outcomes At the end of the course, students should be able to: 1. Apply the principles of thermodynamics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the principles of thermodynamics (C6). Course Description This course includes the following topics; an introduction to thermodynamics, properties of pure substances, First Law of Thermodynamics and its application in closed and open systems, Second Law of Thermodynamics, heat engine and reversed heat engine, entropy, Carnot and Rankine cycles. CEV421: INTRODUCTION TO WASTE MANAGEMENT Course Outcomes At the end of the course, students should be able to: 1. Evaluate suitable approaches in solving related environmental issues based on the principles of waste management (C6). 2. Apply suitable laws and regulations in solving the related environmental issues (C4). 3. Propose suitable solutions in solving complex waste management issues using the concept of sustainability (C5). Course Description This course provides general introduction to the waste management, regulations and effects of waste. It also covers topics for three major of wastes such as solid waste management, wastewater treatment system and air pollution controls. Besides, the sustainable waste management is also presented in this course. CEV422: MATERIAL BALANCES 34 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of material balances in solving chemical engineering problems (C3). 2. Evaluate complex chemical engineering problems using the principles of material balances (C6). 3. Evaluate complex chemical engineering problems using modern simulation tools (C6). Course Description This course educates students on how to identify, formulate and solve mass balances problems based on the concept of conservation of mass as the fundamental tool of engineering analysis. The topics cover both steady and unsteady state material balances of processes, with and without chemical reaction and various physical properties of the process materials. Calculations on the material balances of ideal and non-ideal / real gases mixture using computational simulation technique also will be introduced. SEMESTER 3 CEV434: ENVIRONMENTAL LABORATORY Course Outcomes At the end of the course, students should be able to: 1. Distinguish the principle of analytical methods in analyzing environmental samples (C4). 2. Conduct experiments on complex environmental analysis based on standard laboratory practices (P3, A3). 3. Summarize the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description This course enables students to apply theoretical concept as well as improving their knowledge on environmental analysis and technical skills through conducting experiments. Concise and accurate writing and reporting skills will also be developed during the course of this module. CEV430: HEAT TRANSFER Course Outcomes At the end of the course, students should be able to: 1. Apply the principles of heat transfer in solving steady state and unsteady state chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the principles of heat transfer (C6) 35 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description This course covers the principles of heat transfer mechanisms. It involves solving problems in designing heat exchanger in chemical process industries. CEV431: CHEMICAL ENGINEERING LABORATORY Course Outcomes Upon completion of this course based on the theoretical and practical principles of chemical engineering thermodynamics and fluid flow, students should be able to: 1. Apply the basic principles of chemical engineering thermodynamics and fluid flow in solving complex chemical engineering problems (C3). 2. Conduct experiments related to chemical engineering thermodynamics and fluid flow concepts in solving complex chemical engineering problems based on standard laboratory practice (P5, A5). 3. Interpret the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description This course involves a series of experiments that deal with the principles of thermodynamic units, as well as fluid flow concept. CEV432: ENERGY BALANCES Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of energy balances in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using the principles of mass and energy balances (C6). 3. Evaluate complex chemical engineering problems using modern simulation tools (C6). Course Description This course is a continuation from the material balance course. The students will be exposed to identify, formulate and solve mass and energy balance problems based on the concept of conservation of mass and energy as the fundamental tool of engineering analysis.The students also will be exposed to the application of chemical engineering simulation software to solve material and energy balances of chemical processes. CEV411: MASS TRANSFER Course Outcomes 36 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Upon completion of this course, students should be able to: 1. Apply the basic principles of mass transfer and separation processes in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems using mass transfer and separation process principles (C6). Course Description This subject introduces the students to one of the fundamental knowledge that the students must acquire in mass transfer and mass transfer operations. The topics covered include the concepts of mass transfer and equipment design for gas absorption, adsorption and drying. SEMESTER 4 CEV631: LEADERSHIP AND PROFESSIONAL ETHICS FOR ENGINEERS Course Outcomes At the end of the course, students should be able to: 1. Explain the characteristics and actions of great leaders as well as various ethical issue/dilemmas based on principles of leadership and professional ethics, respectively (C6). 2. Present proposal and findings of community program using word and power point processor, respectively, with proper organization of writing and good quality of presentation materials (C5, A5). 3. Demonstrate responsibility as a leader/team member in performing task towards both team members and community based on professional and ethical practice (P5, A5). Course Description This course consists of three (3) parts. The first part is to introduce on the engineering leadership. The second part concentrates on the “Thoughts and Policies of Tun Dr. Mahathir Mohamed”, the prominent leader of Malaysia. The third part will expose the students to the professional ethics concepts that can be applied in real engineering world. CEV413: PHYSICO-CHEMICAL WASTEWATER TREATMENT Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of physico-chemical processes to solve problem in wastewater treatment (C3). 2. Evaluate the complex engineering problems in wastewater treatment using the principles of physico-chemical processes (C6). 3. Propose design solutions to the complex engineering problems using the principles of physico-chemical processes (C5). 37 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description This course provides the physical unit operations and unit processes utilized in the treatment of wastewater. It also covers topics including: basic of physico-chemical wastewater treatment, physical treatments and process units such as screening, mixing, filtration, aeration, stripping and adsorption. This course also comprises relevant topics on chemical treatments such as flocculation, coagulation, chemical precipitation, disinfection and advanced wastewater treatments. CEV440: CHEMICAL REACTION ENGINEERING Course Outcomes At the end of the course, students should be able to: 1. Evaluate complex chemical engineering problems using the principles of chemical reaction (C6). 2. Evaluate complex chemical engineering problems using the principles of reactor design (C6). Course Description This course enable students to develop understanding of the fundamentals of reaction engineering and reactor design. The students learn how to apply stoichiometry in combination with the rate laws to design a chemical reactor that produces the desired conversion of reactants. The design of batch reactor, various type of continuous reactors, isothermal reactor, and catalytic reactor are discussed. This course also covers the different methods of determining the rate law, multiple reactions and catalytic reactions. CEV623: NUMERICAL METHODS AND OPTIMIZATION Course Outcomes Upon completion of this course, students should be able to: 1. Apply the principles of numerical methods in solving the mathematical problems related to chemical engineering (C3). 2. Solve complex chemical engineering problems using the principles of numerical methods (C6). 3. Develop mathematical programs using modern simulation tools in solving complex chemical engineering problems (C5). Course Description This course provides basic knowledge of numerical methods with the aid of MATLAB and MS Excel including root-finding, elementary numerical linear algebra, solving systems of 38 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) linear equations, curve fitting, numerical solution to ordinary equations and optimization. The numerical techniques acquired in this course will enable students to solve chemical engineering problems. CEV407: CHEMICAL ENGINEERING THERMODYNAMICS Course Outcomes At the end of the course, students should be able to: 1. Apply the advanced principles of thermodynamics in solving chemical engineering problems (C3). 2. Evaluate the complex chemical engineering problems by using the advanced principles of thermodynamics (C6). Course Description This course discusses thoroughly the principles of chemical engineering thermodynamics (thermodynamics of mixtures, vapor-liquid equilibria, ideal and real gas/solution, chemical reaction equilibria) and the details of their applications in chemical engineering processes. SEMESTER 5 CEV423: BIOLOGICAL PROCESSES IN WASTEWATER TREATMENT Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of biological processes to solve problems in wastewater treatment (C3). 2. Evaluate the complex engineering problems in wastewater treatment using the principles of biological processes (C6). 3. Propose the suitable solution in solving the complex engineering problem related to wastewater treatment using the concept of sustainability (C5). Course Description This course covers theoretical and practical aspects of biological processes in wastewater treatment engineering applications. The major focus of this course is on the processes used in wastewater and sludge treatments which are activated sludge and anaerobic digestion. Therefore, the fundamental concept of bioreaction engineering is used to support the design of the biological process unit or bioreactor. Besides, others type of sludge treatment method, composting, reuse and disposal of sludge are also presented in this course. CEV501: SEPARATION PROCESSES 39 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Outcomes At the end of the course, students should be able to: 1. Apply separation process principles of unit operation in solving chemical/environmental engineering problems (C3). 2. Evaluate complex chemical/environmental engineering problems using mass transfer and separation process principles (C6). Course Description The course introduces topics on separation as unit operation in the application of solving the environmental problems using distillation, liquid-liquid extraction, leaching and membrane separation. CEV523: SOLID WASTE MANAGEMENT AND AIR POLLUTION CONTROL Course Outcomes At the end of the course, students should be able to: 1. Explain the principles of solid waste management and air pollution control to solve environmental issues (C2). 2. Evaluate the complex engineering problems in solving environmental issues based on the principles of solid waste management and air pollution control (C6). 3. Evaluate suitable solutions in solving issues related to solid waste management and air pollution control using the concept of sustainability (C6). Course Description This course provides fundamental concept of solid waste management and basic principles of air pollution control and measurement systems. This course also comprises the process engineering principles especially in selecting and designing the solid waste disposal and air pollution control systems. In addition, the relevant topic such as conversion of waste to energy, treatment and disposal of industrial, hazardous and clinical wastes are also presented. CEV601: MATERIALS AND MECHANICAL DESIGN OF PROCESS EQUIPMENT Course Outcomes At the end of the course, students should be able to: 1. Explain the mechanical properties of materials in solving complex problems related to equipment design (C2). 2. Evaluate the principles of material properties in solving problems related to process equipment (C4). 3. Evaluate complex problems related to equipment design using the principles of material and mechanical properties (C6). 40 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Course Description This course imparts the knowledge of the mechanical properties of materials needed for designing engineering equipment. The topics covered include theories of failure, mechanical design of pressure vessel, as well as other process equipment and supports. CEV503: COMPUTATIONAL PROCESS SIMULATION Course Outcomes Upon completion of this course, students should be able to: 1. Distinguish suitable unit operations in the simulation tools and identify process specification for chemical process simulation (C4). 2. Evaluate the simulation findings of complex chemical engineering problems based on the desired outputs (C6). Course Description This course exposes students to chemical process simulations by using computational process simulation technique. The simulation work involves simulation of important chemical engineering equipment such as reactors, separation units and heat transfer units. The course also requires students to exercise their knowledge on the chemical and phase equilibrium, chemical kinetics, functions of equipment for specific process, selection of process flow conditions and process plant optimization, by looking into product yield and waste minimization. SEMESTER 6 CEV544: PROCESS CONTROL AND INSTRUMENTATION Course Outcomes At the end of the course, students should be able to: 1. Examine the principles of instrumentation measurement and apply the suitable mathematical principles in control systems (C4). 2. Evaluate complex engineering problems using suitable control systems approaches (C6). 3. Conduct the experiments on control systems based on the principles of control systems (P3). 4. Present the experimental findings in reports with good organization and articulation of data (C4). Course Description This course begins with a discussion of principle concept, theory and terminologies of process control. It moves on to discuss the product hardware and software that implement the theory, and then proceeds to describe instrumentation examples and the system-design approaches suitable for variety of production processes. Exposure and 41 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) hands-on training using appropriate software to simulate processes such as MATLAB as well as real process simulators are also introduced. CEV633: ENGINEERING ECONOMICS AND PROJECT MANAGEMENT Course Outcomes At the end of the course, students should be able to: 1. Evaluate the principles of engineering economy and project management in solving chemical engineering/environmental problems (C6). 2. Analyze the complex engineering problems using modern engineering tools (C4). 3. Propose suitable solutions to the complex engineering problems using the engineering economy and project management principles (C5). Course Description This course comprises topics that cover the principles, basic concepts and methodology of engineering economy. The topics also emphasize on the engineering economic analysis and enable rational decision making related to cost in environmental engineering practices. Furthermore, the course will provide basic concepts and principles of project management. Planning, scheduling, monitoring, controlling, evaluating and terminating the project are also emphasized in this course. CEV654: PROCESS HAZARD ANALYSIS AND SAFETY Course Outcomes At the end of the course, students should be able to: 1. Describe and explain the basic principles of process hazard analysis and safety related to the chemical engineering / environmental issues (C2). 2. Evaluate the chemical engineering / environmental issues using the basic principles of process hazard analysis and safety (C6). 3. Present solutions related to the chemical engineering / environmental issues using the basic principles of process hazard analysis and safety in a report (C5). Course Description The course offers a detailed study on applications of engineering principles to process safety, hazards analysis and mitigation. It covers issues relevant to chemical process safety and environment covering Occupational Safety and Health laws and regulations, other regulations, the regulatory process, methods and techniques for proactively identifying, assessing and eliminating or controlling hazards to acceptable levels. The course also discusses the national and international safety and health regulatory provisions, and principles and techniques for identifying, analyzing and controlling hazards which are required on any process plant to ensure safe and efficient operation. The course also emphasizes on risk assessment and management, maintenance program, emergency response planning, occupational safety and health management system and relevant case studies. 42 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) CEV452: UNIT OPERATIONS LABORATORY Course Outcomes At the end of the course, students should be able to: 1. Apply the basic principles of unit operations in solving the chemical engineering/environmental problems (C3). 2. Conduct experiments related to unit operations in solving complex chemical engineering/environmental problems based on standard laboratory practice (P5, A5). 3. Interpret the experimental findings in laboratory report using a word processor with proper organization and articulation of data (C6). Course Description Unit Operation Laboratory enable students to apply theoretical concept as well as improving their knowledge and technical skills through conducting experiments. Concise and accurate writing and reporting skills will also be developed during the course of this module. SEMESTER 7 CEV602: PLANT DESIGN Course Outcomes At the end of the course, students should be able to: 1. Apply the chemical engineering fundamentals and engineering judgement in a design project (C4). 2. Evaluate complex plant design that is technically feasible, safe and environmentally acceptable based on the project requirements (C6). 3. Evaluate complex plant design that is technically feasible and cost-effective based on the project requirements (C6). Course Description This course covers the chemical process and plant design through topics relating to the flow sheeting, product design, heuristic and guidelines in design, preliminary sizing of equipment and pinch technology in environmental engineering. CEV444: INSTUMENTAL AND ENVIRONMENTAL ANALYSIS Course Outcomes At the end of the course, students should be able to: 43 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1. Evaluate the related environmental problems based on the basic principles of instrumental and environmental analysis (C6). 2. Conduct experiments related to instrumental and environmental analysis in solving environmental problems based on standard laboratory practice (P4, A3). 3. Present the experimental findings in a report with proper organization and articulation of data (C5). Course Description This course introduces topics on qualitative and quantitative analysis for environmental samples using spectroscopy and chromatography methods. Besides, this course also covers the analysis methods for water, soil and air samples. Analytical method, analytical data and sampling procedures will be introduced as well in this course. CEV651: FINAL YEAR PROJECT I Course Outcomes At the end of the course, students should be able to: 1. Produce a final report in compliance to the professional ethical standard using suitable software (A3). 2. Present the findings of research works in oral presentations (C5, A4). 3. Demonstrate effective engagement in the research works and activities (A3). 4. Justify the research proposal and activities in the form of reports with proper organization and articulation of data (C6). Course Description In this course each student will be required to prepare and deliver an oral and written report. A series of lectures on research methodology will be given as guidance for the students. The sequence of the report is based on a systematic development of the thesis. The subjects of these reports are: 1. An introduction to the general topic 2. A literature review of the specific topic of the project or thesis 3. A thesis proposal that should include the detailed scope and plan of the research. Each of these reports should contain primary material that will be included in the final thesis report, which will be delivered at the conclusion of the research. SEMESTER 8 CEV663: DESIGN PROJECT Course Outcomes 44 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) At the end of the course, students should be able to: 1. Evaluate a complex plant design that is technically feasible and cost effective based on the project requirements (C6). 2. Evaluate a complex plant design that comply to environmental and safety standard based on the project requirements (C6). 3. Present a final design project through oral presentation with proper organization and articulation of data (C5, A5). 4. Demonstrate responsibility as an effective team member in performing task based on professional, integrity and ethical practice (A5). 5. Incorporate the knowledge and understanding of engineering principles and managing principles to manage a project in multidisciplinary environments (C5). Course Description The design project is the pinnacle of chemical engineering program. Students are required to carry out a project on topics related to chemical/environmental engineering. The design project is focusing on the literature study of the project which includes process background, environmental and safety consideration, mass and energy balance for the plant, process simulation, waste minimization and water pinch, a detailed process design for unit operation and economic analysis. CEV504: PARTICLE AND BULK MATERIAL HANDLING Course Outcomes Upon completion of this module, students should be able to: 1. Evaluate the basic principles of particle and bulk solid properties in solving chemical engineering/environmental problems (C6). 2. Evaluate the complex engineering problems in particle and bulk solid handling using the design principles of equipment. (C6). 3. Propose suitable equipment in solving problems related to solid handling and processes with proper consideration on sustainability (C5). Course Description The syllabus introduces basic topics on processing and handling of particles and powders. The topics included have been selected to give coverage of broad areas within particle technology: characterization, powder processing, particle formation, fluidparticle separation, bulk solid handling and powder transport. CEV641: ENVIRONMENTAL IMPACT ASSESSMENT AND MANAGEMENT PLAN Course Outcomes At the end of the course, students should be able to: 45 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1. Explain the concepts of environmental impact assessment (EIA) and environmental management plan (EMP) in solving the chemical engineering / environmental problems (C2). 2. Evaluate the complex chemical engineering / environmental issues using the concepts of EIA and EMP (C6). 3. Present suitable solutions related to the chemical / environmental issues in report and oral presentation (C5, A5). Course Description This course introduces the topics of EIA, EMP and also the subsequent contribution worthy of the complete analysis to the decision making process. Besides, it also provides the fundamental essentials of impact assessment in all impact categories and also the tool to improve environmental performance. CEV652: FINAL YEAR PROJECT II Course Outcomes At the end of the course, students should be able to: 1. Conduct experiments/simulation using suitable research tools based on standard laboratory/simulation practices (P6, A5). 2. Produce a final report in compliance to the professional ethical standard using suitable software (A5). 3. Present the findings of research works in oral presentation (C5, A5). 4. Compose a final report and manuscript based on the research findings with proper organization and articulation of data (C6). Course Description This course is the continuation from Research Project I. Each student is required to carry out a research-based project at which at the end of the investigation, the student need to produce a written report and present the project details and findings. Intersession CEV645: INDUSTRIAL TRAINING Course Outcomes 46 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) At the end of the course, students should be able to: 1. Present and communicate effectively with fellow workers and supervisors in performing the assigned duties/tasks (A3). 2. Demonstrate effective organizational skills and team-work in performing the assigned duties/tasks (P4). 3. Present the outcomes of internship activities in reports with good organization and articulation of data (C6). 4. Demonstrate good responsibility in internship activities with high level of integrity, ethical and accountability (A5). Course Description Industrial training is an important component in engineering curriculum. Theories learnt in all the core and non-core courses will have to be applied into the real working environment in environmental industries. Prior to the actual training in industries, students are trained to make job applications before stepping into the real working environment. 3.2.2 SEM PC List of Courses That Qualify for Credit Exemption (Diploma Students – March 2016 and September 2016 Intake) PREREQUISITE CR HOUR K T M Comm/Hum/ Eth 2 2 - - Co-cu 1 1 - - National Kesatria II Co-cu 1 1 - - HBU131 National Kesatria III Co-cu 1 1 - - CEV415 Chemistry for Chemical Engineers Eng 3 3 1 - CEV401 Introduction to Chemical Engineering Eng 3 3 1 - CEV402 Engineering Draw ing Eng 1 0 - 2 CEV414 Fluid Mechanics for Chemical Engineers Eng 3 3 1 - 3 1 - CODE COURSE NAME CATEGORY CTU551 Tamadun Islam dan Asia HBU111 National Kesatria I HBU121 CEV430 Heat Transfer Eng 3 CEV501 Separation Process Eng 3 3 1 - CEV422 Material Balances Eng 3 3 1 - CEV403 Thermodynamics Eng 3 3 1 CEV431 Chemical Engineering Laboratory Eng 1 MAT435 Calculus II For Engineers AS/Math/Com 3 TOTAL 4.0 3 1 31 IMPORTANT ACADEMIC INFORMATION 4.1 Plagiarisms: Statement Plagiarism is using other people’s ideas such as words, opinions, thoughts, products, 47 3 - FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) information and findings/results, (both spoken or written) inclusive of assignments, project papers, thesis/dissertations, research, proposals, tests and examination papers and pass them off as your own without giving credit to them in the form of citation, acknowledgement and referencing. The penalties for plagiarism include the following: 1. 2. 3. 4. A fail grade of work Suspension from academic session Expulsion from the University Withdrawal or revocation of Degree Note: For more details about plagiarism, the students are encouraged to download the ebook from UiTM website: http://hea.uitm.edu.my/v1/index.php?option=com_flippingbook&view=categories&Itemid=1 41 4.2 Requirements of class attendance Students must attend all lectures including other forms of learning activities such as workshops/ tutorials/ laboratory work/ studio work/ fieldwork/ practical work/ practicum/ industrial or clinical training as stipulated in the syllabus. Students with less than 80% attendance from the total contact hours for; 1. Courses with final examinations are not allowed to sit for the final examination of that course. 2. Courses with no final examinations, the course work will not be evaluated. This is true for every course if the written approval for absence is not sought from the Faculty/Branch Campus/Learning Centre. Students affected will be given a Grade F or fail with a ZZ status and are required to pay a processing fee of RM100.00. 48 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 4.3 Awards of degree A Bachelor’s (Honours) Degree will be conferred on a student who fulfills the following requirements: 1. Acquired a CGPA of at least 2.00. 2. Passed all the courses required by the programme of study and obtained a completed status (ANC, TS or TM). 3. Fulfilled all conditions and requirements of the University. 4. Endorsed by the Senate. 4.4 Class of degree Class Range of CGPA First 3.50-4.00 Second (Upper) 3.00-3.49 Second (Lower) 2.20-2.99 Third 2.00-2.19 Students will be given the following status based on their CGPA: ANC : Completed with Vice Chancellor’s Award TS : Completed with Dean’s List Award LU : TM : Completed P : AD : Dean’s List Award D : Pass Probation (Unsatisfactory) Failed and Terminated Status of probation (P) is awarded to students with unsatisfactory performance and it is divided into two categories: P1 : First probation – acquired a CGPA of 1.80 to 1.99 in a semester. P2 : Second probation – acquired a CGPA of less than 2.00 after getting a P1 probation in the previous final semester. Status of Dismissed (D) is given to students with extremely unsatisfactory performance and it is divided into the following: D1 : A CGPA of less than 1.80. D2 : A CGPA of less than 1.80 with P1 status. D3 : A CGPA less than 2.00 with P2 status. D4 : Failed in a certain course for the third time. D5 : A CGPA of less than 2.00 at the end of the maximum period of study and still have courses which have not been completed. D6 : Passed all courses required by a programme and fulfilled all the requirements of the programme but acquired a CGPA of less than 2.00. D7 : Did not sit for the examination of all the registered courses for that semester without the approval of University. 49 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Extended Full Time Status (SML) is given to full time students with unsatisfactory performance when they exceeded the period of study stipulated in the plan of study. 4.5 Vice Chancellor’s award The Vice Chancellor’s Award is a distinction award for students who completed their studies and obtained the Dean’s List Award every semester (not including practical training semesters) throughout the duration of their studies at the University. 4.6 Dean’s list award The Dean’s List award is a distinction award for students who obtained a minimum GPA of 3.50 for at least 12 credit units (excluding courses with Pass/Fail status) in a semester. 4.7 Marking scheme The official marking scheme of the university and its stipulations are as follows. Students will be given a grade according to this marking scheme. Grade Marks Grade Points Interpretation A+ 100-90 4.00 Excellent A 89-80 4.00 Excellent A- 79-75 3.67 Excellent B+ 74-70 3.33 Good B 69-65 3.00 Good B- 64-60 2.67 Good C+ 59-55 2.33 Pass C 54-50 2.00 Pass C- 49-47 1.67 Fail 50 FACULTY OF CHEMICAL ENGINEERING LU F1 F2 F3 PD PC Student Handbook (2016) D+ 46-44 1.33 Fail D 43-40 1.00 Fail E 39-30 0.67 Fail F 29-0 0.00 Fail Pass Fail a course on (1st) attempt Fail a course on (2nd) attempt Fail a course on (3rd) attempt Credit Transfer Credit Exemption TL UD FD XX YY ZZ Incomplete Audit Disciplinary action Absent from final exam with permission Absent from final exam without permission Barred from taking the final examination for courses with final examination; or not given the assessment marks for courses without the final examination Note: For more details about academic regulations (2015), students are encouraged to download e-book from UiTM website: http://hea.uitm.edu.my/v1/index.php?option=com_content&view=article&id=84:academicregulations&catid=58:academic-regulations# 5.0 STUDENT FACILITIES 5.1 Library The library was established on 16th June 1996 in temporary campus of Permatang Pasir and then move to Permatang Pauh campus on 2003. Originally, it was placed at Perdana building and since 2011, it has been located at a new library building which is near to the Islamic Center building. The library consists of three levels, where the first level specified for the series publication and reference collection while the general collection is placed at second and third level. In addition, the materials of media collection were also located at the third level. In order to support one of the UiTM mission to enhance the knowledge through research work, the library is committed to provide not only books to the users but they also subscribed more than 50 online databases from the various journals. For detail library facility and services, the student may browse: http://penang.uitm.edu.my/perpustakaan 51 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 5.2 Computer Laboratory In line with the recent development in information technologies, the students need to be exposed with the latest knowledge using the developed technologies to enhance their skills and understanding during learning. Thus, the faculty offers the computer laboratory facility to facilitate the needs of transferring the knowledge. The computer lab is equipped with the up to date software which can assist the students to develop their knowledge in modeling and simulation as required by the processes in the chemical industries such as ASPEN PLUS, AutoCAD and MATLAB which are suitable for teaching and research. 5.3 Laboratories The faculty offers a wide choice of facilities to assist student in their learning process. The high technology equipment is provided in specialized laboratories for learning and research activities. 5.3.1 LABORATORY Research Lab Laboratory list of person in-charge and equipment LOCATION PERSON IN-CHARGE EQUIPMENTS Analytical balance Autoclave Bench top dissolved oxygen meter SITI MAZNAH HJ SULAIMAN 52 FACULTY OF CHEMICAL ENGINEERING Ground Floor, Chemical Engineering Pilot Plant Chemistry lab I and II, Perdana Block LABORATORY Chemical Engineering Lab LOCATION Ground Floor, Chemical Engineering Pilot Plant Student Handbook (2016) Lab Assistant (04-3822434) SAIFUL ANUAR ROSWAN Lab Assistant (04-3822435) SALAMIAH ABDUL HAMID Assistant Science Officer (04-3822434) PERSON IN-CHARGE BOD Incubator Centrifudge Chemical oxygen demand reactor Chemical Storage Cabinet Drying cabinet Flocullator Freezer Heating mantle Hot plate Incubator Oven Incubator shaker Industrial Blender Laboratory oven Micropipette Muffle furnace Overhead stirrer Portable conductivity meter Portable DO meter Portable pH Meter Refrigerator Top loading Balance Top table orbital shaker Turbidity Meter Ultrapure water system Ultrasonic bath Universal Oven Vertical grinding & pulverizing Vortex Mixer Water bath EQUIPMENTS NOOR FAEZAH MD DESA Assistant Science Officer (04-3822431) 53 Tray drier Gas absorption unit Liquid diffusion coefficient Marcet boiler Gaseous diffusion coefficient Concentric tube heat exchanger Distillation column system Rotating disc liquid-liquid extraction Vapour liquid equilibrium Thermal conductivity of liquid Osbourne reynolds demo unit Supercritical fluid extraction Rotary evaporator Sieve shaker Vertical Pulverizer & Grinder Laminar Flow BOD Incubator FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Top loading Balance LABORATORY LOCATION Ground Floor, Instrumentation Chemical Analysis Lab Engineering Pilot Plant PERSON IN-CHARGE EQUIPMENTS KHAIRONNISWAH ABDUL SAMAD Science Assistant Officer (04-2822433) 54 UV-VIS Spectophotometer FT-IR Spectrometer High Performance Liquid Chromatography Microscope Automated Gas Pycnometer Surface Area Analyzer HP Compaq Elite 8000 & Monitor Gas Chromatography Mass Spectrometer Inductive Coupled Optical Emission Spectrometer Chemisorption Analyzer Simultaneous Thermal Analyzer (TGA & DSC) Spectrophotometer Ultrasonic Bath Gas Chromatography FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) Chemisorption Analyzer (Reactor) Simultaneous Thermal Analyzer (DSC) LABORATORY LOCATION Process Control Lab Ground Floor, Annex Block 5.3.2 PERSON IN-CHARGE KHAIRONNISWAH ABDUL SAMAD Assistant Science Officer (04-2822433) SAIFUL ANUAR ROSWAN Lab Assistant (04-3822435) EQUIPMENTS Level Control Module Air Temperature Control Module Air Pressure Control Module Instrument Calibration Station General Laboratory Safety Procedures and Rules 55 FACULTY OF CHEMICAL ENGINEERING Student Handbook (2016) 1. Students must arrive at each session on time, with proper dress code – lab coat and shoes. No slippers are allowed. 2. Students are not allowed to enter the laboratory without permission from the lectures or the lab assistant. Working alone or unsupervised in laboratory is forbidden. 3. Bags are not allowed in the laboratory. 4. Students are not allowed to eat, drink or smoke while working in the laboratory. 5. Students are not allowed to run experiment when they are sleepy or under medication. 6. Read the instruction carefully and follow the laboratory procedures. Do not touch anything that you are not completely familiar with. 7. Ensure that the switches are “off” the plugs are unplugged and the working area is cleaned before you leave the laboratory. 8. Place the equipment and tools back to their original place after the experiments. 9. Notify your lecturer or lab assistant immediately if there is an accident. Enquiries & Feedback: Faculty of Chemical Engineering, Universiti Teknologi Mara, Cawangan Pulau Pinang, Kampus Permatang Pauh, 13500 Permatang Pauh, Pulau Pinang. Tel: 04‐3822652 56