Syllabus and Curriculum
The Faculty of Mechanical and Aerospace Engineering (FTMD) at ITB offers an applied and industry-relevant curriculum across all levels of education. Supported by innovative teaching methods, this underscores FTMD’s commitment to providing a standard of education and learning that is on par with other leading universities worldwide.
Mechanical Engineering Study Program
Compulsory Courses for All Sub-Major of Undergraduate Program in Mechanical Engineering Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MA1101 | Mathematics IA | 4 | FI1202 | Elementary Physics IIB | 3 | |
FI1102 | Elementary Physics IB | 3 | KU1202 | Introduction to Engineering and Design | 3 | |
KI1002 | General Chemistry B | 4 (1) | MS1200 | Engineering Drawing | 2 | |
KU1001 | Sports | 2 | MS1210 | Statics | 3 | |
KU1102 | Introduction to Computation | 3 | MA1204 | Mathematics IIC | 4 | |
MS1100 | Introduction to Mechanical, Material and Aerospace Engineering | 1 | KU1024 | English | 2 | |
KU1011 | Indonesian Language: Scientific Writing | 2 | ||||
Semester 1 Credits : | 17 | Semester 2 Credits: | 19 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS2100 | Introduction to Mechanical Engineering | 2 | MS2200 | Statistics | 2 | |
MS2102 | Introduction to Engineering Analysis | 3 | MS2201 | Numerical Analysis | 2 | |
MS2101 | Mechanical Drawing | 2 (1) | MS2202 | System Dynamics | 2 (1) | |
MS2110 | Mechanics and Strength of Materials | 3 | MS2203 | Electric Motors and Drives | 3 (1) | |
MS2111 | Kinematics and Dynamics of Machinery | 4 | MS2210 | Basic Design of Machine Elements | 3 | |
MS2120 | Basic of Engineering Thermodynamics | 3 | MS2220 | Basic Fluid Mechanics | 2 | |
MS2140 | Engineering Materials | 2 (1) | MS2240 | Structures and Properties of Materials | 2 (1) | |
Semester 3 Credits: | 19 | Semester 4 Credits: | 17 | |||
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS3100 | Engineering Measurement | 2 (1) | MS3200 | Basic Phenomenon on Mechanical Engineering | 1 (1) | |
MS3110 | Basic of Mechanical Vibrations | 2 | MS3201 | Introduction to Control Systems | 3 (1) | |
MS3120 | Basic Heat Transfer | 3 | MS3203 | Engineering Product Design | 3 | |
MS3130 | Manufacturing Process | 4 (1) | MS3221 | Energy Conversion System | 3 | |
KU2071 | Pancasila and Civic Education | 2 | MS3202 | Basic of Mechatronics | 2 (1) | |
MS3230 | Industrial Metrology | 3 (1) | ||||
Semester 5 Credits: | 13 | Semester 6 Credits: | 15 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS4101 | Sustainability Aspects in Mechanical Engineering | 2 | MS4090 | Industrial Internship | 1 (1) | |
MS4102 | Mechanical Maintenance | 3 | MS4092 | Comprehensive Examination | 1 | |
MS4091 | First Final Project | 2 (2) | MS4093 | Second Final Project | 3 (3) | |
MS4100 | Engineering Product Prototyping | 2 | MS4200 | Engineering Management and Business | 2 | |
KU206X | Religion and Ethics | 2 | ||||
Semester 7 Credits: | 9 | Semester 8 Credits: | 9 |
Compulsory Courses for Mechanical Systems Sub-Major
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS3111 | Mechanical Engineering Design | 3 | MS3220 | Thermal Engineering | 3 | |
MS3121 | Fluid Mechanics | 2 | ||||
Semester 5 Credits: | 5 | Semester 6 Credits: | 3 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS4103 | Mechatronics | 2 (1) | ||||
MS4120 | Mechanical Installation System | 3 | ||||
MS4121 | Mechanical Engineering Laboratory | 1 (1) | ||||
Semester 7 Credits: | 6 | Semester 8 Credits: | 0 |
Compulsory Courses for Production Engineering Sub-Major
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS3131 | Analysis of Materials and Information Flows | 3 (1) | MS3231 | Quality Control | 2 | |
MS3132 | Production Cost Estimation | 3 | ||||
Semester 5 Credits: | 6 | Semester 6 Credits: | 2 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS4130 | Manufacturing Automation System | 3 | ||||
MS4131 | Industrial Manufacturing Process | 3 | ||||
Semester 7 Credits: | 6 | Semester 8 Credits: | 0 |
Elective Courses of Undergraduate Program in Mechanical Engineering Major
Codes | Courses | Credits | Intake Semester Recommendation |
MS4087 | Digital Circuits | 3 | 3 |
MS4088 | Signals and Systems | 3 | 6 |
MS4012 | Refrigeration and Cryogenic System | 3 | 7 |
MS4013 | Internal Combustion Engines | 3 | 7 |
MS4014 | Gas Turbine | 3 | 7 |
MS4015 | Heat Exchanger | 3 | 7 |
MS4031 | Theory of Ground Vehicles | 3 | 7 |
MS4032 | Finite Element Analysis | 3 (1) | 7 |
MS4033 | Machine Tools in Industrial Process | 3 | 7 |
MS4034 | Piping System Design and Construction | 3 | 7 |
MS4035 | Biomechanics | 3 | 7 |
MS4036 | Risk Based Inspection | 3 | 7 |
MS4051 | Dies and Mold | 3 | 7 |
MS4052 | Machining Process | 3 | 7 |
MS4053 | Jig and Fixture | 3 | 7 |
MS4054 | Testing of Machine Tool | 3 (1) | 7 |
MS4055 | Tooling System | 3 | 7 |
MS4056 | Numerical Control of Machine-Tool System | 3 | 7 |
MS4089 | Mechatronics System Design | 3 | 7 |
MS313X | Subs | 3 | |
MS4001 | Special Topics in Mechanical Engineering | 3 | |
MS4011 | Design of Fluid System | 3 |
MS1100 Introduction to Mechanical, Material, and Aerospace Engineering
Body of knowledge of mechanical engineering, material engineering, and aerospace engineering are introduced to the students. The course includes: Mechanical Engineering: Engineering design & Structure, Dynamics & Control, Thermo-fluids & Heat Transfer, Material & Manufacture; Material Engineering: Metals, Ceramics, Polymers, Composites, and Natural Materials; Aerospace Engineering: Lightweight structure, Flight Physics, Aircraft Operation & Maintenance. This introductory course is delivered by classical lectures by the academic staffs as well as guest lectures from various industry, e.g. manufacturing, energy, process, aerospace. With this course the students are expected to have a strong understanding and consideration for choosing the suitable study program and have a strong motivation in learning the latter courses.
MS1200 Engineering Drawing
This course discusses and apply skills in engineering drawing as a communication in engineering. First, the important role of engineering and mechanical drawing in engineering sciences is introduced. Then, the following aspects of engineering drawing are discussed and trained. Various types of lines and its utility, various types of engineering drawing, such as: manufacturing, process, electrical, civil, and architecture, Sketching, Projection drawing (isometric, American, European), Cross section drawing, Special drawing presentation, Simple dimensioning, Mechanical element simplification, and Simple assembly. After taking this course, the students are expected to have a knowledge of the role of engineering drawings in industry and ability to demonstrate the skills in producing engineering drawings.
MS1210 Statics
This course concerns basic laws of mechanics and its applications in structural analysis. The content includes review on the force system, free body diagram, equilibrium, simple structure analysis, truss, frame, distributed forces, internal forces, and friction.
MS2100 Introduction to Mechanical Engineering
Introduction to mechanical, production engineering and energy field that will be studied as the part of mechanical engineering curriculum and it will be taught as popular lecture in order to give initial knowledge and to motivate students. The material will be divided as 3 main subtopics, i.e.: mechanical and mechanical design, manufacturing and production engineering, energy and its utilization. The lecture will be presented in audio and visual, oral presentation and structured tasks. Parallel with the lecture in the class, there is a programming class as a practicum, in order to improve and preserve the programming skill of students.
MS2102 Introduction to Engineering Analysis
The course will explain the basics of mathematical techniques in Mechanical Engineering application. After completing the course, the student should obtain the basic understanding and skill to solve the engineering problems using mathematics, especially in relation with vector space, matrix, the application of integral and differential, complex number, ordinary differential equations, differential equation system, the application of Laplace transforms, Fourier series and transform, and the introduction to partial differential equations.
MS2101 Mechanical Drawing
This course is an extension of Engineering Drawing. In this course, the following aspects of mechanical drawing are discussed: mechanical element drawing simplification, Assembly drawing, Detail drawing, Fit and tolerance, Dimensioning and Geometric tolerance, Machining symbol and roughness of surface, Welding symbol, Solid 3D modeling, and 2D technical drawing according to ISO standard. In this course, the students are also trained in a CAD laboratory assignment through Problem Based Learning (PBL), by re- drawing an actual mechanical component, starting with dismantling, sketching, solid 3D modeling, and 2D technical drawing according to ISO standard. After taking this course, the students are expected to have an understanding and able to demonstrate their ability in producing both solid 3D model and 2D technical drawings according to ISO standard.
MS2110 Mechanics and Strength of Materials
This course gives basic knowledge and skill to calculate stresses due to loads. It covers stress-strain concept; tensile test phenomenon; deformation and stress due to axial loading; stress and angle of twist due to torsion; stresses due to bending moment; stresses due to shear force; statically indeterminate structures; stresses due to combined loadings; stress transformation (using Mohr’s circle); deflection of the beam; and buckling phenomenon
MS2111 Kinematics and Dynamics of Machinery
Introduction to kinematics and mechanism. Kinematics degree of freedom, kinematics diagram, instantaneous pole velocity, Kennedy theorem, transmission ratio, graphical method of velocity analysis (velocity polygon), graphical method of acceleration analysis, complex numbers and method. The dynamics of machinery discusses forces in mechanisms, includes static force analysis (free body diagram method, transmission ratio and translation radius method), dynamic forces, kinetostatics, unbalance, balancing of rotating machineries, balancing of reciprocating machineries, and application of gyroscope and flywheel.
MS2120 Basics of Engineering Thermodynamics
This course deals with basic concepts of thermodynamics and their applications in the analysis of simple thermodynamic systems. The class covers the following topics: unit system, definition and basic concepts of thermodynamics, energy and the first law, properties of simple compressible pure substance, ideal gas, incompressible substance, energy analysis of mass and control volume, entropy and the second law, and their application on general mechanical engineering simple thermodynamic systems. After taking this class students are expected to be competent in applying thermodynamics in modelling and analysing simple thermodynamic systems.
MS2140 Engineering Materials
The role of engineering materials in mechanical engineering, classification of materials, the main different between metal, polymer, and ceramics. Material properties : physical, chemical, mechanical, and technology (weldability, formability, castability). Mechanical testing method and testing standards : tension, hardness, impact, creep. Chemical analysis method. Measurement of themal conductivity. Crustallography structure of metals. Introduction to binary phase diagram : interpretation, phases, equilibrium reactions (peritectic, eutectic, peritectoid, eutectoid). Introduction to strengthening mechanisms in metals : alloying, strain hardening, precipitation hardening, dispersion hardening, martensite strengthening. Metallic materials, properties and international standards : plain carbon steel, alloy steel, cast iron, stainless steels, aluminum alloys, copper alloys, nickel alloys. Ceramics materials propertiesand applications : clay, porcelain, cements, abrasive ceramic, refractory ceramics, tempered glass. Polymeric materials and properties and applications : thermoplastic, thermosetting, elastomer. Thermoplastic materials properties and applications : PVC, flexyglass (PMMA), Nylon.Thermosetting material properties and applications : epoxy resin, amino resin. Elastomer material properties and applications : natural rubber, synthetic rubber. Polymer composite materials : fiber materials, matrix material. Introduction to corrosion : corrosion principle,example of corrosion : uniform corrosion, galvanic corrosion, CO2 gas corrosion, stress corrosion cracking, microbial corrosion.
MS2200 Statistics
In this course students learn about the basics of statistics and probability, including the types of distribution, comparative analysis of measurement data, and the correlation of two variables.
MS2201 Numerical Analysis
This course deals with the numerical solution to mathematical problems. Course description includes approximation and round-off errors, truncation error and Taylor series, roots finding of equation, optimization, curve fitting using regression and interpolation, matrix and linear algebra, numerical integration and differentiation, ordinary and partial differential equations. The choice of the right method for an engineering problem determines the success of the solution from a numerical aspect. With sufficient numerical insight and good algorithms, the ability of students to complete the tasks of their advanced courses will be easier by using a computer. Program codes based on numerical methods can be easily developed analysis of measurement data, and the correlation of two Variables.
MS2202 System Dynamics
This course lays the basic of system dynamics. It starts with the basic terminology, continued with linear models (input-output model), modelling of rigid-body mechanical systems, solution method for dynamic models (Laplace transform, response types and stability, etc.), spring and damper elements in mechanical systems, block diagrams and state-variable models, electrical and electro-mechanical systems, fluid and thermal systems, response of first and second order systems.
MS2203 Electric Motors and Drives
This course contains basic knowledge of electricity. In this subject, students are introduced to measurements of voltage, current and dynamic voltage using an oscilloscope. Furthermore, students are invited to understand the DC power supply and DC motors and its characteristics as well. Then, students will be introduced to household electricity (single phase), industrial electricity (three phase), 1 phase dan 3 phase AC induction motors and their control circuit. In addition, other types of motors that are widely used in industries such as stepper motors, brushless AC motors are also presented. Finally, students are encouraged to understand the electrical system in the automotive.
MS2210 Basic Design of Machine Elements
This course discusses theory and practise on the design of various machine components, starting from the application, basic theory, selection, dimensioning based on specific design requirement. First, the student will be given a review on mechanical design process, stress analysis, failure theory, safety factor and introduction and application of various machine elements. Then, as a main subject, the discusses the selection, and sizing to satisfy a certain requirement on: shaft and its accessories (keys, spline, pin, press fit, shrink fit, coupling), joints (bolted, riveted, and welded joints), bearings (roller bearing, bearing housing, journal bearing), springs (coil and leaf springs), flexible transmission elements (belt and chain).Design procedure based on an international standard, such as ISO, is introduced through practise. After taking this course, the students are expected to have sufficient understanding on the design of various machine components and able to demonstrate to design them based on specific design requirements.
MS2220 Basic Fluid Mechanics
This course lays the basic of fluid mechanics and its applications. Coverage includes continuum hypothesis, properties of fluids, fluid statics (including fluid in moving rigid container), fluid kinematics, basic laws of fluid flow (differential and integral forms of continuity equation, Euler, Bernoulli, Cauchy, Navier- Stokes equations, Reynolds transport theorem, linear momentum, angular momentum, energy equation), introduction to main non dimensional parameters (for dimensional analysis), internal flows, external flow characteristics, concept and analysis of lift and drag. After taking this course, students understand basic concepts of fluid mechanics and are competent in analyzing simple fluid mechanic systems.
MS2240 Structure and Properties of Materials
This class is the continuation of MS2140, Engineering Materials, and it deals with more advanced topics on engineering materials. The syllabus covers properties of engineering materials and their relations to microstructure, deformation of metals, polymers, and ceramics, effects of loading (tension, creep, impact, and dynamic) to materials, and embrittlement due to environmental or service conditions.
MS3100 Engineering Measurement
This course deals with measurement techniques ranging from the basic principles, sensors, up until data acquisition. Coverage includes definition/terminologies, calibration, standards, static and dynamic signal analysis, data representation in the frequency domain, sampling theorem and aliasing, digital data acquisition, dynamic response of instruments, step response of first and second order systems, statistical analysis, measurement of temperature, strain, flow, pressure, velocity,and displacement.
MS3110 Basic Mechanical Vibration
This course lays the foundation in mechanical vibration by discussing the theory and some relevant engineering applications. The coverage includes classification of vibration, single degree of freedom (d.o.f.) undamped free vibration, damped vibration, single d.o.f. forced vibration, resonance, vibration sensors, and twod.o.f vibration systems.
MS3120 Basic Heat Transfer
This course provides the fundamentals of heat transfer and its application to simple heat transfer systems. The material covered includes heat transfer analysis methodology, thermal material properties, conduction, single-phase convection, radiation, and heat exchangers. The basics of conduction discussed include steady-state one-dimensional conduction, conduction with heat generation, heat transfer on fins, two-dimensional conduction, and transient conduction. Basics of convection include boundary layers, laminar and turbulent flows, similarity, Reynolds analogy, convection equations for simple geometries for forced and free convections. The basics of radiation discussed include the processes and properties of radiation, as well as the radiation exchange between various surfaces for black body. After taking this course, students are expected to be able to understand various modes of heat transfer and be able to carry out simple heat transfer analysis.
MS3130 Manufacturing Process
This course learns about various manufacturing processes and forms basic skills in the operation of standard machine tools and manufacturing processes. Included in this course: introduction to manufacturing, metal processing, casting and related processes, metal forming and sheet metal working, conventional and non-conventional machining. In addition, students have to perform laboratory assignments in which they would operate standard machines such as lathe, planning, milling, grinding, and learn how to use electric resistance welding equipment, arc (SMAW) welding equipment, and sand casting.
MS3131 Analysis of Materials and Information Flows
This course learns about the integration of manufacturing (or production) technology, production management, and industrial economy. Manufacturing technology is concerned with the flow of materials from raw material acquisition, through conversion in the workshop, to the shipment of finished goods to the customers. Production management deals mainly with the flow of information, so as to manage the flow of materials efficiently by planning and control. Industrial economy treats the flow of costs in order to reduce the product/production cost so as to set the price reasonably.
MS3132 Production Cost Estimation
This course learns about introduction to production systems and process planning concepts. Included in this course:
- Introduction to manufacturing
- Definition of process planning
- Material evaluation and process selection
- Production equipment and tooling selection
- Process parameter
- Introduction to cost estimation
- Element of cost: material cost, labor cost and expenses
- Type of estimations
- Method of estimations
- Production cost estimation
- Estimation of material cost, labor cost
- Estimation of overhead cost
- Estimation of different type of jobs
MS3111 Mechanical Engineering Design
As a continuation of MS 2210 Basic Design of Mechanical Elements, this course introduces the classification, application and further discusses some other mechanical elements with regard to selection and sizing. The coverage includes gears (gear system, gear geometry, spur gear, helical gear, bevel gear, and worm gears), brakes (disc and drum), friction clutches; Flexible transmission (chain and belt). Design procedure based on an international standard, such as American Gear Manufacturer’s Association (AGMA), is also introduced through design practice.
MS3121 Fluid Mechanics
This course deals with a more advanced topics in fluid mechanics and its applications as continuation of Basic Fluid Mechanics. The course covers: boundary layer theory, potential flow, compressible flow analysis (covering ideal gas, Mach number, isentropic and non-isentropic flow, and shock wave), and turbo machineries. After taking this course students are competent in applying engineering fluid mechanics in solving various real/viscous and/or compressible fluid flow problems for engineering applications.
MS3200 Basic Phenomenon on Mechanical Engineering
This laboratory class is intended to review and reinforce student understanding of basic concepts in strength of materials, dynamics, thermodynamics, fluid mechanics, heat transfer, control, and measurement techniques. Among the modules are continuous beam, buckling, free and forced vibrations, gyroscope, governor, heat conduction, forced convection, stress and strain measurement using electrical strain gages, journal bearing, head loss in internal flow, heating or calorific value measurement, and vapor enthalpy and quality measurements.
MS3201 Introduction to Control Systems
This laboratory class is intended to review and reinforce student understanding of basic concepts in strength of materials, dynamics, thermodynamics, fluid mechanics, heat transfer, control, and measurement techniques. Among the modules are continuous beam, buckling, free and forced vibrations, gyroscope, governor, heat conduction, forced convection, stress and strain measurement using electrical strain gages, journal bearing, head loss in internal flow, heating or calorific value measurement, and vapor enthalpy and quality measurements.
MS3202 Basic of Mechatronics
This course discusses the fundamental of semiconductor devices including diode, LED, zener, transistors, and operational amplifiers. Furthermore, this course also discusses number systems, Boolean algebra, and logic circuits.
MS3203 Engineering Product Design
In this course the students are given more comprehension about engineering design process with real example or doing some practice to solve a case study. In the beginning, the student is introduced to philosophy and methodology of engineering design, relation between design, materials, and production process, and some example of it. At the next step, the student is challenged with the design project which consists of design problems formulation, idea sharing, design decision, engineering analysis, and engineering drawing.
MS3221 Energy Conversion System
The concepts and principles of energy conversion systems are introduced and studied, including power generation systems (steam cycle, combustion gas turbine, internal combustion engines, and hydro) and refrigeration systems (vapor compression and absorption). The student will learn about 1) system performances, 2) technologies of the systems including the components and subsystems involved, 3) heat and mass balance, and 4) basic concept of combustion.
MS3230 Industrial Metrology
This course presents an introduction to all stages that need to be followed in order to develop an idea into reality in the industry, taking into account all related aspects and cost. The syllabus also includes an introduction to entrepreneurship. The instructors come from the industry, as well as from the mechanical engineering department.
MS3231 Quality Control
In this course students learn the philosophy and basic concepts of quality improvement, statistical process-based control methods, process capability and measurement of measurement system capabilities.
MS3220 Thermal Engineering
This course is the continuation of the Engineering Thermodynamics and Heat Transfer course. In associated with thermodynamics, the syllabus of the course includes: exergy, vapor power system, gas power, refrigeration and heat pump, thermodynamic equation of state for simple compressible substance, non- reacting ideal gas mixture, psychrometric, reacting mixture and combustion; while in associated with heat transfer, this course includes: forced and free convection with various geometric configurations, characteristics of real surface radiation, grey surfaces, grey surface radiation exchanges, radiation in closed systems, shielding radiation , reradiating surfaces, multimode heat transfer, radiation in participant media, as well as boiling and condensation heat transfer.
MS4101 Sustainable Aspects in Mechanical Engineering
Introduce to environmental global issue especially which related to mechanical engineering profession, rules and regulation in some range area of national, regional, and international. In addition, topic related to introduction of Sustainable Development Goals will also be given in this class. Discuss about environmental effect related to biological, physical, social, and cultural due to general mechanical engineering activities such as design, production, operation, and scrapping, and effort for environmental conservation in mechanical engineering activities.
MS4102 Mechanical Maintenance
This compulsory course forms basic understanding of maintenance engineering. Coverage includes, among others, classification of maintenance, maintenance management and organization, Weibull diagram (bath-tub curve), repair complexity and critical path method, inventory, total productive maintenance, reliability centred maintenance, new paradigms in maintenance, vibration based predictive maintenance, and diagnostic tools.
MS4091 First Final Project
Final Project I is the initial stage of the peak of the graduate education program (capstone course) in which students have the opportunity to integrate and use a variety of knowledge and skills obtained from various previous academic activities in a task of designing, making equipment or preparing experiments, research assignments or assessment assignments theoretical problem. By taking this course, students are able to choose important final assignment topics and contribute to the progress of the nation and prepare their final project work plan proposals. The proposal written is a literature review that has been carried out while taking this course. At the end of the semester from taking this course, students must be able to write the results in a proposal report and present in front of the panel. For that structured activities given in this course are gradual lectures on research methodology in stages as well as intensive guidance from supervisors according to their chosen topic.
MS4100 Engineering Product Prototyping
This course is an extended course of Engineering Product Design. In the end of the semester, the students are expected to make detailed design. The output of detailed design is prototype of the design. This project is the integration of basic consideration of design, detailed technical drawing, and product drawing.
MS4130 Manufacturing Automation System
This course learns about the introductory course of automation system, mathematical model, partly automation, technology group, flexible manufacturing, PLC (programmable logic controller), CNC machinery, CNC programming.
Briefly, the modules of this course are:
- Industrial automation, economical automation, mathematical model, storage, partly automation, balancing, group technology, and flexible manufacturing,
- PLC, introduction of PLC, advantages of PLC, ladder logic diagrams, component of PLC, operation of PLC, PLC programming,
- CNC machinery, general information of CNC machinery, operation, and function of spindle, CNC programming, computer-aided programming, equipment for automation programming.
MS4131 Industrial Manufacturing Process
In this course students learn about the implementation and integration of manufacturing elements in the industry which include industrial automation, computer-aided manufacturing (CAM), Computer-Integrated Manufacturing (CIM), and Industry 4.0
MS4103 Mechatronics
This course will discuss programming method in mechatronic system that includes: • IC • Relay • PLC • Microcontroller Additionally, this course will also discuss about sensor as follows: •Position sensor: limit switch, inductive,capacitive, optic, LVDT • Velocity sensor: hall sensor, encoder • Acceleration sensor: accelerometer Actuator: • Electric motors: 3phase motor, DC Motor, Step motor • Hydraulic and pneumatic
MS4120 Mechanical Installation System
Industry always has a main facility related to the product and the supporting facility to. Mechanical installation is one of the facilities which always available in all industry, either as main or supporting facility. Mechanical Installation System course compile some of Mechanical Engineering knowledge such as Thermodynamics, Fluid Mechanics, Heat Transfer, Machine Element, and Energy Conversion System. The course main objective is to apply the knowledge as basic to design the mechanical installation in an industry. Mechanical installation included in the course consist of piping system, compressed air installation, heating ventilation and air conditioning (HVAC), fire protection system, and material transportation system.
MS4121 Mechanical Engineering Laboratory
This course gives students a brief exposure about Mechanical Engineering Application in the industry. The laboratory class consists of 7 (seven) modules: Gas Turbine Performance Tests, Diesel Engine Performance Tests, Reciprocating Compressor Performance Tests, Water Turbine Performance Tests, Centrifugal Pump Performance Tests, Air Conditioning Machines Performance Tests, and Steam Power Generation Performance Tests.
MS4090 Industrial Internship
This subject provides students with an opportunity to work as an apprentice in the industry. In order to complete the course, students have to work for at least one month in companies whose scope is relevant to mechanical engineering. In addition to learn about the working environment, students have to find and solve a specific case study. The case study might be analysis, synthesis, programming etc., as long as it is relevant to the mechanical engineering field. Students have to write a short report and pass an oral review in front of the practical job committee.
MS4092 Comprehensive Examination
This subject is an examination that provides a final test to the students for their basic knowledge and analysis skills in mechanical engineering field. The examination covers general engineering knowledge (math, numerical analysis, physics), Mechanical and Structural Design, Energy Conversion, Production and Materials. The result of this examination, in one hand, represents the students’ competence before their graduation, and on the other hand providing a feedback to the Mechanical Engineering Dept., so that can be used to evaluate the learning process of each topics and as a continuous improvement process.
MS4093 Second Final Project
The Second Final Project is a continuation of the First Final Project course. The Final Project is the culmination of a graduate education program (capstone course) in which students have the opportunity to integrate and use a variety of knowledge and skills obtained from various previous academic activities in a task of designing, making equipment or compiling experiments, research assignments or theoretical assessment assignments to a problem. Through this assignment, students are able to analyse or synthesize in solving the problems faced, are able to formulate technical issues and seek technical solutions, are able to use various engineering tools to solve problems that are the topic of the final assignment, and are able to convey their findings in writing and verbally.
MS4200 Engineering Management and Business
This course learns about an introduction to all stages that need to be followed in order to develop an idea into reality in the industry, taking into account all related aspects and cost. The syllabus also includes an introduction to entrepreneurship. The instructors come from the industry, as well as from the mechanical engineering department.
MS4011 Design of Fluid System
The course is intended to give brief exposure concerning appropriate international standard and code of pipeline system, understanding local regulations in respect of pipeline transport system, environmental consideration, soil and social condition regarding pipeline. Briefly, the modules of this course are: energy equation, major and minor loss (valve, turn, divarication), pipeline system simulation to choose the most suitable pipeline components based on dimension and transient effect on single system and closed-loop using Hardy cross method, introduction of pipeline standard, selecting the right compressor, pump, and other equipment for fluid transportation, using standard and code for construction and choosing location or pipeline system’s route.
MS4012 Refrigeration and Cryogenic System
This course gives the knowledge, skill, and competence on various refrigeration and cryogenic system including the principle of various refrigeration and cryogenic systems, application of refrigeration and cryogenic systems, vapour compression, absorption and supercritical cycle, energy analysis, types of working fluid or refrigerant and their characteristics, type of major components in refrigeration and cryogenic system, system planning, design and/or selection component, air conditioning system, gas liquefaction and gas separation systems.
MS4013 Internal Combustion Engines
The course is intended to give basic proficiency to connect field experience and modules in class of fuel engine. Furthermore, student can give integrated solution based on all mechanical engineering knowledge to solve industry or society problems. Briefly, the modules of this course are: otto and diesel cycle, effect of design and operation to performance and fuel usage, review about thermodynamic and fluid mechanic, combustion process, heat transfer, friction, power loss, the effect of power loss, efficiency, exhaust gas emission, operation characteristics of various fuel engine, and development tendency of otto and diesel engine.
MS4014 Gas Turbines
The course is an extension course of Energy Conversion II. The aim of this course is to give brief exposure on gas turbine, start from inlet, compressor, combustion chamber, turbine, and outlet. The discussion will be about system introduction and qualitative analysis. In the end of the corse, the output is the student who can solve the disturbance of gas turbine performance not the student who can design the gas turbine. Briefly, the modules of this course are: 1. Properties and characteristics of gas turbine for automotive, ship, and aircraft industry, 2. Major design and component of gas turbine (inlet, compressor, combustion chamber, turbine, nozel, and outlet), 3. Various type of motor (turbojet, turbofan, turboprop, and turboshaft), motor installation, operation region and limitations, 4. Fuel, lubrication, combustion, exhaust gas, 5. Effort to increase power and efficiency, reducing sound, exhaust gas, dimension, and weight, 6. Installation and foundation of gas turbine, operation, and maintenance, 7. Topics of research and development, 8. Designing and experimenting in order to increase quality, safety, and reliability, 9. Reducing fuel consumption, environmentally friendly, reducing cost.
MS4015 Heat Exchanger
This course gives a brief exposure about thermal aspect, material construction, and production. Class activity should mention real application in industry. In the end of semester, students are expected to do group’s assignment. The group’s assignment is to analyse a running heat exchanger in industry. Presentation in front of class is required to achieve other objective of this class, to be able working and discussing in group. Briefly, the modules of this course are: definition and application of heat exchanger, classification of heat exchanger, characteristics of Heat Exchanger, type of heat exchanger and selecting heat exchanger, description of various heat exchanger such as double pipe, shell and tube, plate-fin, plate-frame, air cooled, boiler, evaporator, condenser, and water cooling tower, calculation of heat transfer capacity, overall heat coefficient, area of heat transfer, pressure drop, effectivity, Heat Exchanger standard, and design of heat exchanger.
MS4031 Theory of Ground Vehicles
The course aims to provide fundamental knowledge of the dynamics of ground vehicles comprising propulsion/braking performance, handling and ride aspects. Any vehicle is considered to be a system, composed of modular components. The course will provide knowledge for predicting the vehicle response to various driver and environmental inputs. Briefly, the modules of this course are: Railway vehicles: contact between wheel and rail, sine motion, bogie, car structure, and connecting elements, primary and secondary suspensions, traction force, traction curve (traction force versus velocity diagram), rolling resistance, vibration. Automotive or ground vehicles: tire characteristics, ride and handling, performance, suspension design, transmission, body and structure design.
MS4031 Finite Element Analysis
This course discusses one of analyses that used finite element method to solve the problem in solid mechanic, vibration and heat transfer. This course covers simple one-dimensional element: spring, truss, beam and frame, two- dimensional element: Constant Strain Triangle (CST) dan Linear Strain Triangle (LST), Isoparametric Elements; until three-dimensional element: tetrahedral, hexahedral, etc. Covers modelling, mathematical formulation, and computer implementation for the problem in solid mechanic, vibration and heat transfer.
MS4033 Machine Tools in Industrial Process
This lecture deals with various machine tools commonly used in industrial process. Several industrial process such as palm oil industry, cement industry, coffee industry, chocolate industry, and biofuel industry are introduced comprehensively. On palm oil industry, discussion is initiated from harvesting process of fruit bunch, sterilization, filtering, to producing palm oil. the discussion is also extended with recovery process required for waste of palm oil production process. Various main machine tools required for palm oil production is explained in detail. On cement industry, the discussion is emphasized on cement production process that effective and efficient. biofuel, coffee, and chocolate industries are also explained briefly. Besides that, the emphasized is also conducted for several industrial process tools such as drying machine and compacting machine. On this lecture, students are also required to write a report of industrial process and given a chance to present their report.
MS4034 Piping System Design and Construction
The course objective is to prepare students to demonstrate sound engineering judgment for managing the construction, repair, and maintenance of underground pipelines. In addition, this course will focus on the following student abilities and co-educational outcomes.
- Fundamental Knowledge – Student will develop an understanding of factors affecting the selection of methods for particular renewal, repair, and construction projects.
- Independent Abilities – Student will discuss and elucidate the difference between the various design and construction methods of underground infrastructure.
- Critical Thinking – Student will demonstrate ability to assess, interpret and understand a research topic related to underground pipeline design, construction, renewal.
- Advanced Knowledge – Student will analyse complex problems to determine/identify applicable design options and potential methods to construct, repair, or renew underground pipelines.
- Effective Communication – Student will demonstrate effective communication skills via class discussions, reports, and presentations.
MS4035 Biomechanics
This course will discuss biomechanics of human movement, which is divided into 3 parts, i.e. kinematics, kinetics, and musculoskeletal modelling. In kinematics,
planar and 3D kinematics will be discussed. Then in the second part, body segment parameters, forces and their measurement, two dimensional inverse dynamics, energy, work, and power, three-dimensional kinetics will be discussed as well. The topics covered in the third part are electromyographic kinesiology, muscle modelling, computer simulation of human movement, and musculoskeletal modelling.
MS4036 Risk Based Inspection
This course discusses the safety procedure and risk calculation of some mechanical equipment based on API RP 580 and API RP 581. Included in this course are the explanation and calculation about Probability of Failure (PoF) and Consequences of Failure (CoF) and differences, relationship, and other things related between those the present the risk value in risk matrix. This course also discusses the deterioration mechanism, failure modes and the consequences, and risk mitigation. After taking this course, students are expected to have the ability in calculating and analysing risk of mechanical equipment operated in the industry both using qualitative and quantitative approach and also have theobedient and responsibility values to the safety procedure applied.
MS4051 Dies and Mold
In this course students learn the design methods of dies and mold. The material of this course covers the criteria of mold design, material selection, heat treatment, die construction, specific design specifications, production and limitations, shear stress properties, heat-chamber and cold-room die-casting, metal flow rate and pressure.
MS4052 Machining Process
Classification of machining processes; Basic Elements of Machining Processes; Tools Geometry; Empirical Tools Lifetime; Empirical Cutting Force; Tools Materials; Machining Cost; Machining process optimization; Grinding Processes; Coolant fluids. This course gives an understanding of fundamental machining processes, planning of machining processes, machining process optimization
MS4053 Jig and Fixture
The jig and fixture course explain the design principles of jigs and fixture needed for the production process. Explained about the function and importance of jigs and fixture in a production process, the concept of accuracy and precision and sources of errors that affect the accuracy and precision of the production process. Further explained about the procedures and stages of designing jigs and fixture, the basic principles in determining clamping, positioning and supporting are used in jig and fixture systems, clamping and positioning methods and supporting systems. Also explained are special design aspects related to a specific production process.
MS4054 Testing of Machine Tool
This lecture provides an understanding of the geometrical requirements of machine tools, types of geometric errors that may be found in machine tool construction. In this lecture also explained the standard testing of machine tools, and the process of testing machine tools using conventional measuring instruments and using a laser interferometer.
MS4055 Tooling System
This lecture discusses the tool reference system; tool angle; Manufacture and grinding of tools lathe; Type of tool material; Tool material selection instructions; Tool inserts (tool bits / tips); Tool holders; Expansion system; Tool management; Damage and tool wear; Tool age; Type of coolant; Use & selection of coolant; Effectiveness of coolant; Maintenance of coolant; Shank tools (CAT40, CAT50, CAT50 Aerospace, BT30, BT40, BT50, HSK63, HSK100, NMTB40, NMTB50); Tool holders (End Mill Holders, Shell Mill Holders & Milling Arbors, Collet Chucks); Shrink Fit Tooling; Right Angle Heads / Spindle Speeders; Tapping Chucks / Collets; Drill Chucks / Taper Adapters; Taper Dimensions; Vises and Accessories; GS Lathe Chucks & Power Chucks; Indicator type presetter, Camera type presetter; Advanced presetter.
MS4087 Digital Circuits
In this course the students will get knowledge about number system, Boolean algebra, logic families, combination function, sequential circuit analysis, programmable logic devices, and digital circuit design.
MS4088 Systems and Systems
Introduction to analogue and digital signal processing, very important field in major of applications such as vibration, communication, image processing, electronic circuit, etc. In this course, students will study about basic signal and system concept, Fourier transform, filter design, modulation, and sampling. There will be explained about basic concept of feedback system
MS4089 Mechatronics System Design
This course is a mathematical modelling course of system that will be used for designing control system using computer-aided software. The aim of this course is to establish a fundamental approach to the design of linear control system for student.
Compulsory Courses for All Sub-Major for Master Program in Mechanical Engineering Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS5100 | Research Methodology | 3 | MS5200 | Writing for Scientific Works and Thesis MS | 3 | |
Semester 1 Credits: | 3 | Semester 2 Credits: | 3 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS6090 | Thesis I | 3 | MS6091 | Thesis II | 3 (3) | |
Semester 3 Credits: | 3 | Semester 4 Credits: | 3 |
Compulsory Courses for Production Engineering and Automation Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS5130 | Product Design and Development | 3 | MS5230 | Geometric Dimensioning and Tolerancing | 3 | |
MS5131 | Manufacturing Processes and Product Life-Cycles | 3 | MS5231 | Modelling of Manufacturing System | 3 | |
Semester 1 Credits: | 6 | Semester 2 Credits: | 6 |
Compulsory Courses for Sustainable Energy Engineering Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS5120 | Thermofluid Engineering | 3 | MS5220 | Energy Sustainability | 3 | |
MS5121 | Energy Conversion Analysis Methods | 3 | MS5221 | Modelling and Optimization of Thermal System | 3 | |
Semester 1 Credits: | 6 | Semester 2 Credits: | 6 |
Compulsory Courses for Design, Dynamics, and Control Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS5110 | Finite Element Method for Design | 3 | MS5210 | System Dynamics, Measurement, Signal Processing | 3 | |
MS5111 | Applied Engineering Mathematics | 3 | MS5211 | Applied Statistic | 3 | |
Semester 1 Credits: | 6 | Semester 2 Credits: | 6 |
Elective Courses for Master Program in Mechanical Engineering Major
Codes | Courses | Credits | |
MS6001 | Special Topics in Mechanical B | 2 | |
MS6010 | Control Engineering | 3 | |
MS6011 | Advanced CAD/CAE | 3 | |
MS6012 | Methodology and Design Optimization | 2 | |
MS6013 | Advance Mechanic in Designing Process | 3 | |
MS6020 | Advanced Thermofluid Engineering | 3 | |
MS6021 | Technology of Solar Energy | 3 | |
MS6022 | Heat Exchanger | 2 | |
MS6023 | Integration of Renewable Energy on Grid | 2 | |
MS6030 | Reverse Engineering | 3 | |
MS6031 | Precision Engineering | 3 | |
MS6032 | Production System | 2 | |
MS6033 | Industrial Robotic | 2 |
M5100 Research Methodology
This course is a postgraduate course. In this course, it will be given: the understanding of the level of educational strata, the understanding of science and engineering activities, the understanding of paradigm theory, the understanding of definitions, goals and motivations of research activities, both in terms of science and engineering, the understanding of the differences between research methods and methodologies, the understanding of good research, the understanding of various methods to obtain data, the understanding of mathematical models and their use in research, the understanding of optimal definitions and optimization methods, the understanding of simulation methods and their use in research, the understanding of various methods of statistical analysis and their use in research, the understanding of the importance make a good research proposal, an understanding of writing a good research proposal with assignments and discussion. At the end of the course, college participants are required to prepare a research proposal.
MS5110 Finite Element Method For Design
This lecture discusses the main concepts of material strength mechanics and their application on finite element method. The material covered for the mechanics of material strength includes the basic concepts of stress and strain, axial deformation, stress due to bending moments and torsional moments, and rod deflection. Meanwhile, the finite element method includes the stiffness matrix, bar / spring element analysis, and beam element analysis.
MS5210 System Dynamics, Measurement, Signal Processing
This lecture discusses system dynamic modelling and measurement techniques which include: basic elements of measurement systems and their working principles. In addition, this lecture also discusses signal processing techniques which include: ADC (Analog to Digital Converter) and DAC (Digital to Analog Converter), measurement parameters, modulation, filter design, and Fourier Transform.
MS5211 Applied Statistics
This subject discusses applied applications which are divided into three main topics, namely: introduction to statistics and data analysis, determination of deterministic models and experimental design, and determination of dynamic process stochastic models.
MS5120 Thermofluid Engineering
Thermo Fluid Engineering is designed to improve student capability in energy conversion filed. Three fundamental fields in energy conversion, i.e. thermodynamics, fluid mechanics, and heat transfer are discussed as integrated materials. Since coverage of the topics is quite broad, special attention will be given to the principle of each topic; called as endurance understanding capability regarding the core of the topics. This course focuses on improving student capability on thermo fluids engineering and integration between thermodynamics-fluid mechanics-heat transfer to desing or analyze thermo fluid system.
MS5121 Energy Conversion Analysis Method
This course provides various analytical methods commonly used in solving Energy Conversion problems such as the search for root equations, complex number algebraic, solving simultaneous equations, the process of optimization, calculation of function integration, and solving differential equations. The analysis process is carried out with the help of tables and general engineering software.
MS5220 Energy Sustainability
Fossil fuel consumption faces at least two challenges, i.e., limited availability and environment effect. Many people believe that fossil foil will run out, therefore it is important to develop sustainable energy. Climate change and global warming is caused by greenhouse gases. Fossil fuel burning contribute large amount of greenhouse gases. Sustainable energy is important aspect of human civilization in the future. In this course, there are three main topics, i.e., history and the future of energy with consideration to the aspect of availability and environment. The second part is about source and technology of sustainable energy. The third part is energy conservation.
MS5221 Modelling and Optimization of Thermal System
Design and modelling of thermal systems are two competencies that are needed in the power industry, the oil and gas process industry, and various industries that involves thermal processes. This course discusses the basic principles of design and modelling of thermal system that begin with basic concepts until the application of numerical methods to solve system equations resulting from thermal systems models. Design and modelling are applied in steady state and dynamic case for simple systems. This modelling includes the characteristics of components, working fluids and the system as a whole which are the case objects of thermal systems. Various thermal component models in form of equations are solved simultaneously to obtain mass and heat balances for the thermal system. Resulting mathematical model of thermal systems is used to simulate characteristic of the thermal system.
MS5130 Product Design and Development
This course learns about insights in manufacturing and their role in the product development process. This lecture discusses about product development concepts, product specifications, architectural products, embodiment & detail design, design optimazation, prototyping, technical product documentation and specifications, production documentation, production planning systems, production control systems, and quality control systems.
MS5131 Manufacturing Processes and Product Life-Cycles
This course learns about manufacturing processes used to make mechanical products. Included, the inspection process and quality control of the products and the process planning based on technical drawings. At the end of the course students are required to present a case study of process planning for selected mechanical products.
MS5230 Geometric Dimensioning & Tolerancing
This course learns about the fundamental principles of geometric dimensioning and tolerancing according to standards. Students will apply geometric dimensioning and tolerancing symbols along with tolerances of form, profile, orientation, run-out, and location to mechanical problems. This course explains the meaning of functional dimensioning and calculate limits/fits; compare and contrast coordinate and positional tolerancing methods; interpret and apply geometric tolerancing symbology in technical practice; recognize, analyze, and compute tolerance stacks; apply GDT symbology in detail drawings
MS5231 Modelling of Manufacturing System
This course learns about the principles of manufacturing system modelling. Key topics include classes vs. objects, inheritance, interfaces, object-oriented collection class libraries for abstract data types (e.g stacks, queues, maps, and trees), static vs. dynamic data types, build a database that is used to manage data in the production process, and the Internet of Things in manufacturing system.
MS6090 Thesis I
The Master thesis is the capstone course of the Master program where students have the opportunity to integrate and apply skills and knowledge acquired in various academic activities in a design project, manufacturing of tools or design experiment in a research project or theoretical investigation of a specific problem. In thesis 1, students conduct literature studies and compile research proposals to be carried out with the supervisor.
MS6091 Thesis II
The Masters Thesis is the culmination of a capstone course where students have the opportunity to integrate and use a variety of knowledge and skills obtained from various previous academic activities in a design, equipment or experimental preparation, research assignment or theoretical assessment task of a problem . In thesis 2, students conduct research based on research proposals that have been prepared previously, then report in a thesis document and attend a thesis viva.
MS6001 Special Topics in Mechanical B
This course contains special topics / courses with 3 credits, which are offered by study programs outside of elective courses. This list of topics / courses can be found in Academic Administration. Taking topics in this course must be communicated with the Head of Study Program and Academic Administration.
MS6010 Control Engineering
This course lays the basics of digital control. It starts with the understanding of Z transform and the stability in Z plane. Furthermore, students are introduced to the controller design via root locus as well as frequency response method. Last but not least, state space and Lyapunov stability theorem for discrete system is discussed.
MS6011 Advanced CAD/CAE
This course discusses CAD and CAE topics that have not been or are not discussed at the Bachelor stage. The materials include: CAD and CAE definitions, Geometric modeling – both manifold and non-manifold modeling, Curve modeling (wireframe) – including analytical curves and synthetic curves, Surface modeling, Solid object modeling, Multiple manipulations (editing) Curve, surface and solid modeling, the basic concepts of the finite element method and its relation to the CAE software architecture as well as the basic concepts of design optimization and its application in some existing software.
MS6012 Methodology and Design Optimization
The design methodology topics discussed are the definition of design methodologies and classes, functional-based approach, thinking and specific process in design, and several examples of design methodologies such as the French, Ullman, Ibrahim Zeid, Dieter, Pahl & Beitz, VDI and Hatamura methods. The topic of design optimization discussed is the formulation of optimization problems: problems without and with constraints, existence of optimization problem solutions, iterative procedures in finding solutions. Direct methods include: random search, Powell, steepest descent, sequential linear programming (SLP), method of centers, method of feasible direction, etc. The indirect method includes: SUMT (sequential unconstrained minimization techniques): interior, exterior & extended penalty, ALM (augmented Lagrangian method)
MS6013 Advanced Mechanic in Design Process
This course discusses selected topics of intermediate/advanced mechanics not yet covered in undergraduate level, including: Membranne stress, Thick-walled cylinder shells/Disks, Unsymmetrical bending, Non-linear & Elastic-Plastic Bending, Shear & Torsion, Energy Method. The second part of the course discusses various failure criteria and its application in design problems, including: statics criteria (review), fatigue criteria and fracture mechanics.
MS6020 Advanced Thermofluid Engineering
This course covers: Analysis of a mixture of real gases and gases, Surface heat transfer, Long fins, fins with insulation, Specific heat calculations with Boltzman statistical methods, Convection transferred, Boundary layer and heat transfer from plate, Turbulent boundary layer, Cross flow cylinder environment, analytic and experimental solutions, compressible internal fluid flow, convergent and divergent flow of nozzles, normal and tilted shock analysis, free convection, Bernard stability, log difference in average temperature, NTU method, second legal analysis, legal analysis I and Legal Analysis II, adiabatic flame temperature, Mass action law, chemical balance, Black body radiation, Stefan-Boltzman, Black surface heat transfer and real surface
MS6022 Heat Exchanger
This course gives a brief exposure about thermal aspect, material construction, and production of heat exchanger so that finally students can design heat exchangers in accordance with existing standard. Class activity should mention real application in industry. In the end of semester, students are expected to do group’s assignment. The group’s assignment is to analyse a running heat exchanger in industry or design for a specific purpose. Presentation in front of class is required to achieve other objective of this class, to be able working and discussing in group. Briefly, the modules of this course are: definition and application of heat exchanger, classification of heat exchanger, characteristics of heat exchanger, effect fouling of heat exchanger on operation and design, type of heat exchanger and selecting heat exchanger, description of various heat exchanger such as double pipe, shell and tube, finned tube, plate-fin, plate-frame, air cooled, boiler, evaporator, condenser, and water cooling tower, calculation of heat transfer capacity, overall heat coefficient, area of heat transfer, pressure drop, effectivity, heat exchanger standard, and design of heat exchanger.
MS6023 Integration of Renewable Energy on Grid
Energy from the renewable resources sometimes comes with special characteristics. Solar and wind energies, for example, have fluctuating characteristics, either its voltage or its power. In the term of voltage, it it obligatory to convert the voltage form (dc voltage of PV for example) to the appropriate ac grid voltage and to be synchronized so that it can be connected to the grid. And also, the fluctuative instantaneous power produced by the renewable resources may disturb the stability of the whole power system if it is not treated properly. In this course, the technique how to connect the renewable resources will be discussed so that they can contribute without disturbing the operation of the power system.
MS6030 Reverse Engineering
In this course students learn imitation engineering methodologies through practical application in industry / field which includes the introduction of imitation engineering, imitation engineering methodology, purchase of a product and the relationships between its subsystems, understanding computerized imitation engineering, rapid prototyping processes.
MS6031 Precision Machinery
This course learns about basic precision engineering methodology and advanced concepts for designing CNC machines and high-precision products. This course is specifically designed to teach new design principles that lead to improved machine performance and reliability. Although lectures will mainly focus on the design of high-precision machine systems, CNC machine tools and coordinate measuring machines (CMM), students can easily apply the knowledge acquired for design and other fields.
MS6032 Production System
This course learns about basic models and methods of production system analysis and optimizing. The models concern phases of design, control, performance measurement, and improvement of production systems. Modelling and analysis of supply chain is considered also. Briefly, the modules of this course are: 1. Production systems analysis, 2. System design, model optimization and optimization methods, 3. Increasing process’ efficiency, 4. Type of production systems: batch, continue, and just in time.
MS6033 Industrial Robotic
This course focuses on the mechanics and control of the most important form of the industrial robot, the mechanical manipulator. Most material is of a basic nature that applies to a wide variety of programmable machines. Briefly, the modules of this course are: homogenous transformation; forward/back kinetic; room space; dexterity, dynamic of multicomponent: Newton-Euler recursive formulation, Langrangian recursive formulation, consideration on design, linearization, and simplification of robot dynamic; designing the rail: straight line, curve, trajectory convertion, Cartesian move; static force; compliance; designing assignment.
Compulsory Courses for Doctoral Program in Mechanical Engineering Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS7000 | Philosophy of Science and Engineering | 2 | MS7091 | Dissertation Proposal Writing | 3 (2) | |
MS7001 | Methodology of Research | 3 | ||||
MS7090 | Qualifying Examination | 3 | ||||
Semester 1 Credits : | 8 | Semester 2 Credits: | 3 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS8091 | Research and Progress Report I | 5 (4) | MS8092 | Research and Progress Report II | 5 (4) | |
MS8093 | Paper in National Journals/Proceedings | 2 (2) | ||||
Semester 3 Credits: | 5 | Semester 4 Credits: | 7 | |||
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MS9091 | Research and Progress Report III | 5 (4) | MS9098 | Research and Dissertation Writing | 5 (5) | |
MS9093 | Paper in International Journals/Proceedings | 3 (3) | MS9099 | Dissertation Defense | 3 | |
Semester 5 Credits: | 8 | Semester 6 Credits: | 8 |
Aerospace Engineering Study Program
Compulsory Courses for All Sub-Major of Undergraduate Program in Aerospace Engineering Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
MA1101 | Mathematics IA | 4 | FI1202 | Elementary Physics IIB | 3 | |
FI1102 | Elementary Physics IB | 3 | KU1202 | Introduction to Engineering and Design | 3 | |
KI1002 | General Chemistry B | 4 (1) | MS1200 | Engineering Drawing | 2 | |
KU1001 | Sports | 2 | MS1210 | Statics | 3 | |
KU1102 | Introduction to Computation | 3 | MA1204 | Mathematics IIC | 4 | |
MS1100 | Introduction to Mechanical, Material and Aerospace Engineering | 1 | KU1024 | English | 2 | |
KU1011 | Indonesian Language: Scientific Writing | 2 | ||||
Semester 1 Credits: | 17 | Semester 2 Credits: | 19 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE2100 | Introduction to Aerospace Engineering | 2 | AE2200 | Instrumentation, Measurements and Experimentation | 3 | |
AE2101 | Engineering Mathematics | 3 | AE2201 | Engineering Analysis and Numerical Method | 3 | |
AE2102 | Thermal Engineering | 4 | AE2202 | Fluid Dynamics | 3 | |
AE2103 | Kinematics and Dynamics | 3 | AE2203 | Dynamical System | 3 | |
AE2130 | Aircraft Materials and Manufacturing Methods I | 3 | AE2204 | Data Sciences and Statistics | 3 | |
MS2110 | Mechanics and Strength of Materials | 3 | AE2230 | Aircraft Materials and Manufacturing Methods II | 2 | |
Semester 3 Credits: | 18 | Semester 4 Credits: | 17 | |||
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE3141 | Aircraft Systems | 3 | AE3200 | Control Engineering | 3 | |
AE3100 | Mechanical Vibrations | 3 | AE3211 | Aircraft Propulsion | 3 | |
AE3110 | Aerodynamics I | 3 | AE3220 | Flight Dynamics | 3 | |
AE3120 | Aircraft Aerodynamics and Flight Performances | 4 | AE3201 | Astronautics | 3 | |
AE3140 | Airworthiness Certification | 3 | ||||
AE3130 | Lightweight Structure Analysis | 3 | ||||
Semester 5 Credits: | 19 | Semester 6 Credits: | 12 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
KU206X | Religion and Ethics | 2 | AE4097 | Comprehensive Examination | 1 | |
AE4000 | Aspect of Sustained Environment | 2 | KU2071 | Pancasila and Civic Education | 2 | |
AE4020 | Flight Communication, Navigation, and Surveillance | 2 | AE4099 | Undergraduate Thesis II | 3 | |
AE4098 | Undergraduate Thesis I | 2 | AE4090 | Profession and Community Development A | 1 (1) | |
TI4004 | Industrial Management B | 2 | ||||
Semester 7 Credits: | 8 | Semester 8 Credits: | 9 |
Compulsory Courses for Aeronautics Sub-Major
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE3210 | Aerodynamics II | 3 | ||||
AE3230 | Lightweight Structure Design | 3 | ||||
Semester 5 Credits: | 0 | Semester 6 Credits: | 6 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE4040 | Aircraft Design | 4 | ||||
AE40X5 | Aerospace Computational Method | 3 | ||||
Semester 7 Credits: | 7 | Semester 8 Credits: | 0 |
Compulsory Courses for Aviation Sub-Major
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE3240 | Air Transportation | 3 | ||||
AE3241 | Air Transportation Modeling | 2 | ||||
AE3242 | Airport System | 2 | ||||
Semester 5 Credits: | 0 | Semester 6 Credits: | 7 | |||
Semester 7 | Semester 8 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE4041 | Aviation System Planning | 4 | ||||
AE4042 | Aircraft Maintenance Engineering | 2 | ||||
Semester 7 Credits: | 6 | Semester 8 Credits: | 0 |
Elective Courses for Undergraduate Program in Aerospace Engineering Major
Code | Courses | Credits | Recommended Semester to Take |
|
1 | AE4015 | Computational Aerodynamics | 3 | 7 |
2 | AE4016 | Experimental Aerodynamics | 3 | 7 |
3 | AE4019 | Special Problem in Aerodynamics and Propulsions | 3 | 7 |
4 | AE4025 | Flight Simulation Engineering | 3 | 7 |
5 | AE4026 | Attitude Dynamics & Control | 3 | 7 |
6 | AE4029 | Special Problem in Flight Mechanics | 3 | 7 |
7 | AE4035 | FInite Elements Method | 3 | 7 |
8 | AE4037 | Impact Mechanics | 3 | 7 |
9 | AE4091 | Profession and Community Development B | 2 (2) | 7 |
10 | AE4092 | Profession and Community Development C | 3 (3) | 7 |
11 | AE4093 | Profession and Community Development D | 4 (4) | 7 |
12 | AE4027 | Avionic Systems | 3 | 8 |
13 | AE4036 | Aircraft Loads | 3 | 8 |
14 | AE4039 | Special Problem in Lightweight Structure | 3 | 8 |
15 | AE4049 | Special Problem in Aircraft Operation and Maintenance | 3 | 8 |
AE2100 Introduction to Aerospace Engineering
This course gives an introduction to Aerospace Engineering, which covers the historical review, types of flying vehicles, aerospace environments, as well as the introduction to the science and technology of Aeronautics (Aerodynamics, Propulsion, Structures and Materials, Flight Mechanics, Aircraft Design and Production), the introduction to the science and technology of Astronautics (Launch Vehicles, Rockets, Satellites, Orbital Mechanics, and Interplanetary Missions), and the introduction to the science and technology of Aviation (Basic Systems, Airworthiness, Transportation System, Maintenance, and Airport System).
AE2101 Engineering Mathematics
This course discusses theory of matrices and ordinary differential equations with applications in physics and engineering. Topics covered: linear transformation and matrices, orthogonal operators, system of linear equations, Gauss-Jordan elimination methods, Gauss-Seidel methods, determinant, Cramers’s rule, LU decomposition, characteristic polynomials, eigenvalues and eigenvectors, symmetric and skew symmetric matrix, matrix diagonalization, orthogonal operators 1st order Ordinary Differential Equation (ODE), 2nd order ODE, higher order ODE, and system of linear ODE.
AE2102 Thermal Engineering
This courses discusses state and thermodynamic properties, property of “simple compressible substance”, equation of state, work and heat, thermodynamic process, first law of thermodynamics for closed and open systems, enthalpy, application of the first law, Carnot cycle, heat pumps and air cycle, the second law of thermodynamics , entropy, thermodynamic relations, cycle: Otto, Diesel, and Brayton, introduction to heat transfer, steady conduction, unsteady conduction, free and forced convection, and radiation.
AE2103 Kinematics and Dynamics
This course introduces the basic principles of rigid body dynamics, including the motion (kinematics) and its relationship to the forces as a cause or a result of the motion (kinetic). The motion is reviewed in a variety of coordinate systems according to the problem at hand. The relationship between motion and forces obtained from the equations of motion, which is derived using Newton’s law directly, the application of energy method, and impulse-momentum principle. The discussion carried out in stages, starting from the system of particles to rigid bodies in 2D space.
AE2130 Aircraft Materials and Manufacturing Methods I
This course discusses the relationship between the internal structures of metals with their mechanical properties. The types of metal failure i.e. fracture, fatigue, creep, and corrosion are introduced. The basic principle of strengthening of metals is introduced together with the application of the principle to the steel, aluminum, titanium, and super alloys. Some manufacturing methods and types of joint used in aircraft structure are discussed briefly. This course also discusses some considerations in material and manufacturing method selection to fit a design process.
AE2200 Instrumentation, Measurements, and Experiments
This course introduces the theory and practice of instrumentation and experimental methods in aerospace engineering. The topics covered includes applied electronics, basic measurement system, error and data analysis, Wheatstone bridges, signal conditioning, data sampling, data acquisition, technical reports, wind tunnel and technique for measuring (force and moments, pressure, flow, strain, displacement, motion, and vibration), and introducing of flight mechanics instrument measurement. Moreover, this course also introduces the technique for good report writing.
AE2201 Engineering Analysis and Numerical Method
This course covers Laplace and Fourier transforms, introduction to PDE, and numerical methods with applications in physics and engineering. Topics covered: Laplace and Fourier transform, Introduction to PDE: hyperbolic, parabolic, elliptic, error analysis numerical calculation of eigenvalues, root finding, Regressions, Interpolations, Numerical Differentiation, Numerical Integrations.
AE2202 Fluid Dynamics
This course explains fluid media (continuum concept, gas property, dimension, viscosity, fluid stress, and dimensional analysis), fluid kinematics (substantial derivatives, rotation, strain, vorticity of circulation, flow function, flow line, and flow wake), fluid mechanics (mass, momentum, and energy conservation, Bernoulli equation, fluid forces, buoyancy force, force on the surface of a body, assumption: inviscid, adiabatic, and irrotational, flow in pipes, potential flow, modeling of potential flow using source, doublet, and vortex, and potential flow around cylinders).
AE2203 Dynamical System/Aerospace Dynamics/Analytical Dynamics
This course covers the following materials : review of Newton’s Law, definition of reference/coordinate system, definition of position/velocity/acceleration vectors, equation of motion, energy & momentum, conservation of energy & momentum, rigid body kinematics in 3D space, inertia tensor, product of inertia, rotation axis transformation, principal axes, stability, virtual works principle, Lagrange Equation, Hamiltonian Equation, elastic system, principle of linearization, system of 1st order ordinary differential equations (state-space), review of Laplace transform, transfer function, and frequency response function (FRF).
AE2204 Data Science and Statistics
The objective of the course is to introduce students to the way and concept of thinking with uncertainty, probability, data interpretation, data visualization, learning from data, and big data. The course discusses: Types of data, statistical errors, descriptive statistics; Probability Theory, permutation and combination, set theory, conditional probability, Bayes Theorem, expected values; Probability distributions; Point and Interval estimation, Testing of hypothesis – large sample; Testing of hypothesis – small sample; Testing of 2 classes, test of variance, Correlation and Regression; Multiple Linear Regression; Machine Learning; Data Mining; Exploratory Data Analysis; Big Data. Examples of the applications of statistics and data science in engineering and management are given. The course is delivered with several case studies.
AE2230 Aircraft Material and Manufacturing Methods II
This course discusses the mechanical properties of polymer, ceramic, and composite material in conjunction with their manufacturing methods. This course also discusses the sandwich structure and aspects of structural design using polymer and composite material.
AE3100 Mechanical Vibration
This lecture discusses the oscillation or vibration of a mechanical system. The discussion includes free vibration of a linear single degree of freedom (SDOF) system, free vibration equation of motion, natural frequency, initial condition, and damping effect. The forced vibration of SDOF, forced vibration equation of motion, response to the harmonic motion, damping effect, and response to the non-harmonic motion. The system of two degrees of freedom representing the multi-degree of freedom (MDOF) system is discussed to represent a more general system, the concept of vibrational mode is introduced here. Furthermore, vibration on a continuous system as a basic of structural dynamics analysis is introduced. At the end of the lecture, the static and dynamic aeroelasticity phenomenon will be introduced.
AE3110 Aerodynamics I
This course contains the materials about subsonic to hypersonic compressible flows, including physical flow phenomena, governing equations of inviscid compressible flow, 1D and 2D compressible flow model, and its application in the design of the nozzle, intake, and supersonic airfoil. The detailed discussion is begun with thermodynamic review and review of conservation equation for inviscid flow (conservation mass, momentum, and energy); One-dimensional and quasi-one dimensional isentropic flows; One-dimensional non-isentropic flow (normal shockwave, Rayleigh flow, and Fanno flow); Two-dimensional nonisentropic flow (oblique shockwave and expansion waves Prandtl-Meyer); Unsteady wave motion; Potential flow equation; Linearized potential flow; Theory of thin airfoil for subsonic and supersonic; Characteristic method; Design of supersonic nozzle, intake, and supersonic airfoil; Transonic flow on airfoil and wing; Hypersonic flow.
AE3120 Aircraft Aerodynamics and Flight Performance
The course covers the semi-empirical methods to obtain aerodynamics characteristics of airfoil, wing, and aircraft. This course also discusses the effects of various flight conditions (e.g., Reynolds and Mach numbers) and flight configurations (e.g., flap deflections and landing gear extension) on the aerodynamic characteristics. This course also provides methods to predict an aircraft’s flight performance along its flight path from take-off, climb, cruise, glide, turn flight, and landing, from the obtained aerodynamic characteristics.
AE3130 Lightweight Structure Analysis
This lecture discusses modeling and analyzing aircraft structures, which can also be applied to the other lightweight structure. The students will learn how to model an aircraft structure with some main load acting on it. That modeling process will develop students’ ability in carrying out an initial step in the analysis process. This course also discusses the concept and procedure of stress analysis on a semimonocoque structure due to shear force, torsion, bending moment, or internal pressure to estimate the structure’s ability to transfer load. Basics of structural failure, fatigue and fracture mechanics, buckling, and aeroelasticity are given to complement the knowledge in doing the analysis process. Individual assignments are given to enhance the understanding of the material given.
AE3140 Airworthiness Certification
This course gives an overview of aircraft’s operational procedure; the factors and practices supporting aviation safety in the design, development, production, and certification process; and the operating procedures that need to be met by the operators and the operating environment for the safety of flight. Regulations (CASR Parts 21, 121, 145, 65) and airworthiness authority organization are comprehensively covered. Furthermore, it is explained some fundamental concepts of ARP 4754A. The course is delivered with case studies in aircraft design, development, manufacturing, operation, and maintenance to give students a practical application.
AE3141 Aircraft System
The course explains all aircraft systems, except avionic equipment. Each aircraft system’s functional requirements will be discussed, including the environmental operating conditions, regulatory and user requirements, system mechanisms, component mechanisms, and energy requirements. At the beginning of the lecture, it will be discussed the design process and general regulation requirements of aircraft systems shortly. The systems to discuss are Environmental Control, Ice Protection, Bleed Air, Fuel, Flight Control, Hydraulics, Landing Gear, Electrical Power, and Instrumentations. The variation in design and technology being used are also covered, especially for the new aircraft.
AE3200 Control Engineering
This course covers aspects and methods for linear system analysis and linear control design, by using classical and multi-variable control approaches. This course’s content consists of linear system analysis, i.e., definition of transfer function and state-space model, stability analysis, system observability, system controllability, system’s time response, and frequency response analysis. This course’s content also covers some aspects and methods for designing and analyzing closed-loop system, i.e., classical methods (root locus method, lead-lag compensator, and PID) and multi-variable methods (pole placement, optimal control, and observer-based control). This course also discusses some control system implementation in aerospace applications, such as for aircraft automatic flight control system.
AE3201 Astronautics
This course introduces astronautics (space environments and spacecraft systems: thermal protection, communications, power, attitude control, and propulsion), two-body problem, operational orbital maneuvers (circularization, orbital boost, de-orbit, plane change, apsidal rotation, and nodal rotation), two body orbit as initial value problem (elliptic, parabolic, and hyperbolic orbit), and interplanetary trajectory (including gravity assist maneuver).
AE3210 Aerodynamics II
This course covers kinematics, conservation of mass and momentum for incompressible flow, basic assumptions, Kelvin theorem, basic potential flow (velocity potential, Laplace equation, uniqueness of the solution, and elementary solutions), Kutta-Joukowski theorem, airfoil and wing geometry, boundary conditions for airfoil and wing, Kutta conditions, thin airfoil theory, airfoil theory with conformal mapping, trailing vortex, induced drag, vortex sheet, Bio Savart’s Law, Helmholtz theorem, Prandt’l lifting line theory, taper ratio and twist angle effects, linearized compressible flow, compressibility effect, introduction to panel method, laminar boundary layer (Blausius solution and integral method), and turbulent boundary layer.
AE3211 Aircraft Propulsion
This course discusses the propulsion system, propulsion engine cycle analysis and working principle, and engine core components analysis. Topics covered: Thrust, Propeller, Cycle analysis of ramjet, turbojet and turbofan, Inlet and nozzle, Compressors, Combustion chamber and Axial turbine.
AE3220 Flight Dynamics
This course explains the generation of forces and moments on an aircraft (A/C), and their effects to the motions during the flight, in the 3-dimensional space, with 6 degrees of freedom. Aircraft motions here are the motions relative to its center of gravity. The main topics to be discussed in this course are the equation of motion, steady-state (trimmed) flight analysis, static stability analysis, and dynamic stability analysis.
AE3230 Lightweight Structure Design
This course discusses the aircraft structure design based on the airworthiness requirement. The roles and layout of the main components of the aircraft structure, material selection, and load analysis to find critical design are also discussed. The students are also taught to think about how to synthesize the aircraft component using a simple procedure. The students will design aircraft structural components and present their design results in a seminar and written report. The design results must follow the standard technical drawing.
AE4040 Aircraft Design
In this course, the aircraft design process and cycle are given market study and determination of design specification; configuration design concepts and ideas; initial sizing; design considerations and geometry definition of fuselage, wing and tail; weight estimation and balance; internal layout design and landing gear sizing; analysis of aerodynamics, performance and flight dynamics; economic analysis. The course is delivered in lectures and a corresponding team design project. Students are expected to be able to perform the design process in teams of 5-6 students with supervision. The students are to complete a design of a specified aircraft type. Progress is monitored through a weekly report and meeting. The final design will be presented and assessed in a student-led seminar.
AE4098 Undergraduate Thesis I
The undergraduate thesis is an assignment in the form of a project or research activity carried out by the students as a condition to conclude their study program. In Final Project I, students start to arrange their research/project plan with their supervisor, which must be reported in writing. In this first phase, students will carry out some activities: – Have an intensive discussion session with their supervisor – Have some sessions about guidance for report writing – Attend short courses about engineering ethics – Prepare a written report about the final project/research plan.
AE4099 Undergraduate Thesis II
Final Project is the culmination of the Undergraduate Program in which students have an opportunity to integrate and apply various knowledge and skills obtained from numerous previous academic activities in a specified task of design, instrument setting and make up or experiment design, research or theoretical analysis of a specified problem. From this project, one can analyze or make a synthesis for a solution of the problem, through the formulation of the technical problems and finding solution and can use numerous engineering tools to solve the problem in hand, and to present the findings and the analysis in oral and written forms. The project is finalized with a written documentation and must be defended in an open seminar and a closed oral examination.
AE4097 Comprehensive Examination
This subject is an Examination subject that provides a final test to the students for their basic knowledge of mechanical engineering. The examination covers general engineering knowledge (math, numerical analysis, physics),knowledge of aerospace engineering, including the discipline of aerodynamics, propulsion, flight mechanics, astronautics, lightweight structure, materials, and aircraft design, operation, and maintenance. The result of this examination, in one hand, represents the competence of the student before graduation, and on the other hand providing a feedback to the Mechanical Engineering Dept., so that can be used to evaluate the learning process of each topics and as a continuous improvement process.
AE409X Profession and Community Development
Student activities in order to provide students with insight into working condition in real industrial plant/shop/offices (1 credit unit activities). The activities can be in the forms of internship / involvement in industrial work in limited time, or involvement in several industrial visits and / or presentation sessions by people from industries/manufactures/companies. Student activities in industry as internship may provide students with practical industrial experience. With this course students acquire knowledge about engineering profession, especially in aerospace engineering fields, able to formulated and solve problems, and able to report and present report.
AE3240 Air Transportation
The objectives of the course are that the students can understand various aspects of law, engineering, operations and management in aviation industries, especially airline operations. The course covers national and international policy and regulations, both technical and economic; access to air transportation market; airline business, operation and management; airline planning: market study, route and network planning; introduction to engineering economics and economic decision making; cost and revenue analysis and management; airport business, air traffic management and maintenance business and operation. Practical case studies are covered as group exercises.
AE3241 Air Transportation Modeling
The modeling of the air transportation system course includes lectures on the topic of system conception, principles of system modeling, model calibration and validation, dynamic system models, travel models, airport capacity models, ATC system capacity models, airlines capacity models, airport service quality models air, airline service quality models, and simulations.
AE3242 Airport System
The airport system lecture provides an understanding of airports including aspects of airport regulation, airport planning, airport operations, airport facilitation, airport environment impact, and the economy of airport. In addition, in this lecture participants were also invited to do airport planning.
AE4020 Flight Communication, Navigation, and Surveillance
The course gives introduction to electronic systems utilized in modern aircraft covering communication, navigation, and surveillance system (CNS)
AE4042 Aircraft Maintenance Engineering
The course discusses an overview on aviation safety and operating costs, review on proChapterility theory and models, failure density functions, maintenance concept, Reliability-Centered Maintenance (classification of MSI, specification of maintenance tasks, Maintenance for aircraft structure, examples of application; MSG-3; Regulations (MEL, CASR, and Advisory Circular) and organization to develop a maintenance program; Reliability Program; material management; capacity planning; audit of maintenance performance.
AE4000 Aspect of Sustained Environment
The course will cover environmental aspects related to aviation industry activities, i.e. natural environment (atmosphere, gravitation, electromagnetic and inertial) and created environment (sound/noise, radio waves, infrared). The impact of aviation activities to the environment will be discussed: Atmospheric pollution, Noise, vibration, Waste, Water use and soil, excessive energy use. The aviation security and safety, including work safety will also be discussed. The course will be conducted as lectures covering the subjects and discussion of real cases, accompanied by group assignments discussing contemporary issues. The safety issues will discuss the human and system factors behind an aircraft accidents or accidents in working environment. In the lecture also discussed the role of aerospace technology to create environmentally friendly technologies, both in aircraft technology, airports, air transportation management, and outside the aerospace field.
AE40X5 Aerospace Computational Method
his course covers some of the numerical methods used in aerospace science/engineering fields, namely the Finite Element Method (FEM), Computational Fluid Dynamics (CFD), and Flight Simulation Engineering. This course’s content is similar to that of the Finite Element Method, or Computational Fluid Dynamics, or Flight Simulation Engineering course. Students in the aeronautics program stream must choose one of those 3 offered options as compulsory courses.
AE4015 Computational Aerodynamics
This course presents the basics and techniques of CFD in aerodynamic computation. The basic CFD includes fundamental principles of flow motion, flow models and flow governing equations as well as boundary conditions, turbulent flow, mathematical behaviors of partial differential equations, discretization approaches: finite difference, finite volume and finite element, spatial and temporal discretization techniques, explicit and implicit schemes, numerical stability analysis, transformation of physical domain to computational domain. Pre-processing: initial definition of simulation, geometry, topology, mesh and its quality, techniques of geometry and structured mesh generation, Computational processing: physics model and numerical scheme, physical and numerical parameters and numerical controls, Numerical schemes for solving elliptic, parabolic and hyperbolic partial differential equation differential equations partial, turbulence modelling and selection of turbulent model and numerical code development techniques. Post processing: data processing and result presentation, validation.
AE4016 Experimental Aerodynamics
This course contains the basis of measurement, signal analysis, uncertainty analysis, sampling and data acquisition, measurement systems, wind tunnels, and interference correction method, force and moment measurement, pressure measurement, and the measurement of shear stress temperature, measurement speed (hot-wire, LDA), measuring at high-speed aerodynamics (Schlieren, interferometer), modern measurement methods (PTV, PIV, PIT).
AE4019 Special Topic in Aerodynamics and Propulsion
The course discusses strategic and up-to-date issues in Aerodynamics and Propulsion field. The course emphasizes on interactive discussions and literature study in the analysis of the strategic issues. The active participation of the students will be greatly encouraged through individual and group contribution. In this course advanced and latest issues in aerospace fields, especially those related to aerodynamics and propulsion fields, will be discussed, and elaborated. For example, issues related to the application of optimization technique for improving aerodynamics efficiency, development of advanced experimental tool and technique, design of high efficiency propulsion system, aerodynamics analysis on micro flying machine, etc.
AE4025 Flight Simulation Engineering
In this course, various aspects of aircraft flight simulator are discussed. The topics comprise the historical review of the development, several applications, mathematical model of aircraft dynamics, navigation model, cockpit display, instructure station, and validation and qualification of aircraft flight simulators, and the use of X-Plane for research and teaching purposes. In more details, the following topics will be covered:
- Historical perspective of simulator development
- Components of a flight simulator • Simulator types and purposes
- Mathematical model of aircraft motion
- Earth navigation model
- Aircraft cockpit display
- External environment visualization
- Instructor Station
- Simulator validation and qualification
- The use of X-Plane software for research and education
- Advanced simulator technologies and future development
AE4029 Special Topics in Flight Mechanics
The course discusses strategic and up-to-date issues in Flight Mechanics. The course emphasizes on interactive discussions and literature study in the analysis of the strategic issues. The active participation of the students will be greatly encouraged through individual and group contribution. In this course advanced and latest issues in aerospace fields, especially those related to flight mechanics fields, will be discussed and elaborated. For example, issues related to the application of advanced flight control system on modern civil aircraft, improvement of aircraft performance through configuration optimization, the use of UAV system for strategic application, etc.
AE4035 Finite Element Methods
In this course, a basic concept of a computational method to calculate stress and deformation in a structure is introduced, starting from a review of basics of the theory of elasticity for axial bar, beam, membrane, plate and 3-D structure. Then, matrix method for solving structure problem is introduced, followed by concepts and procedures of finite element method for axial bar, beam, trusses and frame, and simple 2-D cases, starting from building element stiffness matrices, construction of global stiffness matrix, boundary conditions, solving linear algebra calculation, and result analysis. Beside lectures, students must attend six modules of laboratory works and one group assignment for structural analysis of a simple real problem.
AE4036 Aircraft Loads
This course is designed to give an understanding to the students on the primary parameters that will influence load on each aircraft components. Due to highly interactive nature between aeronautics disciplines, i.e. aerodynamics, flight performance and aircraft structures, therefore this course is about the technology. Therefore, a review of each disciplines are given prior to the discussion on the aircraft load. This course is an introductory on the aircraft load, due to external or internal loads during flight or on the ground. The content of the course covers cruise loads, maneuver loads, turbulence loads, ground loads, miscellaneous loads, elasticity effect, horizontal tail loads, and wing loads. Those loads are important for structural design consideration.
AE4037 Impact Mechanics
The course will be started with the introduction of the accident statistical data in the world and Indonesia, types of accident, crash severity, accident reconstruction, and ways to reduce injury risk in the vehicle occupant during the accident. It’s followed with the new product development process which includes market research procedure, competition identification, and applicable regulations and internal requirements. Use of advanced technology will be presented in terms of design software and visualization, advanced material, propulsion technology, lightweight structure with space frame construction, and occupant restraint system technology. Global regulations and requirements related to the transportation safety, such as FAA, FMVSS, ECE regulations will be discussed to give students good understanding on the design constraint and parameters needed to design crashworthy structures, as well as the strategy for structural design, interior, and overall transportation safety system. The second part of the course relates to the discussion of crash mechanics to get a good understanding on the impact energy management strategy. Special case on the development of lightweight crashworthy structure for aircrafts, trains, and vehicles will be discussed. Structural crashworthiness for vehicle development will be discussed in greater detail in terms of structural crash pulse, impact biomechanics, restraint coupling (seat belt, pretensioner, airbag), and occupant injury prevention. Consumer metric evaluation with worldwide New Car Assessment Program (NCAP) will be discussed to give students understanding on the safety STAR Rating given by a third-party evaluator on in Europe, Asia, and US. The new car rating and its implication to associated injury risk will be discussed in a simulated crash condition. Students will be provided real cases use in the process of design of crashworthy structures in the aircraft and automotive industries.
AE4039 Special Topics in Lightweight Structure
The course discusses strategic and up-to-date issues in Lightweight Structure. The course emphasizes interactive discussions and literature study in the analysis of the strategic issues. The active participation of the students will be greatly encouraged through individual and group contributions. In this course, advanced and latest issues in aerospace fields, especially those related to lightweight structure fields, will be discussed and elaborated. For example, issues related to the development of aircraft structure condition monitoring system, material design methods, development of optimization methods for aircraft structure configuration design, advanced aeroelasticity, structure, and materials of spacecraft, etc.
AE4049 Special Topics in Aircraft Operation and Maintenance
The course discusses strategic and up-to-date issues in air transportation planning. The course emphasizes on interactive discussions and literature study in the analysis of the strategic issues. The active participation of the students will be greatly encouraged through individual and group contribution. In this course advanced and latest issues in aerospace fields, especially those related to Aircraft Operation and Maintenance fields, will be discussed and elaborated. For example, issues related to the development of air traffic management system, concept and implementation of free flight approach, optimization method for controlling air traffic, application of advanced navigation techniques and systems on civil aircraft, etc
AE409X Profession and Community Development
Student activities in order to provide students with insight into working condition in real industrial plant/shop/offices (1 credit unit activities). The activities can be in the forms of internship / involvement in industrial work in limited time, or involvement in several industrial visits and / or presentation sessions by people from industries/manufactures/companies. Student activities in industry as internship may provide students with practical industrial experience. With this course students acquire knowledge about engineering profession, especially in aerospace engineering fields, able to formulated and solve problems, and able to report and present report.
Compulsory Courses for All Sub-Major of Master Program in Aerospace Engineering
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE5001 | Advanced Mathematics | 3 | ||||
MS5100 | Research Methodology | 3 | ||||
Semester 1 Credits: | 6 | Semester 2 Credits: | 0 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE6090 | Thesis I | 3 (3) | AE6091 | Thesis II | 3 (3) | |
Semester 3 Credits: | 3 | Semester 4 Credits: | 3 |
Compulsory Courses for Flight Mechanics Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE5020 | Advanced Flight Performance | 3 | AE5021 | Flight Control | 3 | |
AE5022 | Advanced Flight Dynamics | 3 | ||||
AE5023 | Advanced Astrodynamics | 3 | ||||
Semester 1 Credits: | 3 | Semester 2 Credits: | 9 |
Compulsory Courses for Aerodynamics and Propulsion Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE5012 | Viscous Flow | 3 | AE5010 | Turbulent Flows | 3 | |
AE5011 | Computational Fluid Dynamics I | 3 | ||||
AE5013 | Compressible Flow | 3 | ||||
Semester 1 Credits: | 3 | Semester 2 Credits: | 9 |
Compulsory Courses for Aircraft Design, Operation, and Maintenance Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE5040 | Flight Operations | 3 | AE5041 | Management of New Product Development | 3 | |
AE5042 | Aviation Business | 3 | ||||
AE5043 | Design Project | 3 | ||||
Semester 1 Credits: | 3 | Semester 2 Credits: | 9 |
Compulsory Courses for Lightweight Structures Sub-Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE5030 | Advanced Finite Element Method | 3 | AE5003 | Continuum Mechanics I | 3 | |
AE5031 | Mechanics of Structural Composite | 3 | ||||
AE5032 | Experimental Solid Mechanics | 3 (1.5) | ||||
Semester 1 Credits: | 3 | Semester 2 Credits: | 9 |
Elective Courses for Master Program in Aerospace Engineering Major
Code | Courses | Credits | Recommended Semester to Take |
|
1 | AE5014 | Propulsion Aerodynamics | 2 | 1 |
2 | AE5033 | Aeroelasticity | 3 | 1 |
3 | AE5034 | Structural Damage Tolerance | 3 | 1 |
4 | AE5044 | Human Factor Engineering | 2 | 1 |
5 | AE5045 | System Safety Engineering | 2 | 1 |
6 | AE5046 | Aircraft Maintenance Management | 2 | 1 |
7 | AE6010 | Computational Fluid Dynamics II | 2 | 3 |
8 | AE6020 | Introduction to Flight Test Technique | 2 | 3 |
9 | AE6021 | Advanced Control Engineering | 2 | 3 |
10 | AE6092 | Minor Research | 3 (3) | 3 |
11 | AE5002 | Differential Equations | 3 | |
12 | AE5004 | Special Topics in Aerospace A | 2 | |
13 | AE5047 | Aircraft Accident Investigation | 2 | |
14 | AE6000 | Continuum Mechanics II | 3 |
AE5001 Advanced Mathematics
This course discusses theory of matrices and ordinary differential equations with applications in physics and engineering. Topics covered: linear space, linear transformation, matrices, orthogonality (vector and function), system of linear equations, Gauss elimination methods, determinant, Cramer’s rule, LU decomposition, characteristic polynomials, eigenvalues and eigenvectors, quadratic function, symmetric and skew symmetric matrix, matrix diagonalization, Singular Value Decomposition (SVD), 1st order Ordinary Differential Equation (ODE), 2nd order ODE, higher order ODE, system of linear ODE, system of linear ODE with non-constant parameters, nonlinear dynamical system.
AE5012 Viscous Flow
Review of fluid kinematics, conservation of mass, momentum, and energy, the Navier-Stokes equations, Navier-Stokes solution, laminar boundary layer, flat plate boundary layer (incompressible and compressible), similarity solutions, the solution with the integral method, the stability of laminar flow, transition to turbulent flow.
AE5010 Turbulent Flows
Introduction to turbulent flow, turbulent flow equations of motion, vorticity equation, the use of statistical concepts in turbulent flow, Reynolds stress, equal to the average flow, energy cascade, Kolmogorov hypothesis, turbulent spectra, turbulent flow near the surface, turbulent boundary layers, free shear flow turbulent, DNS and LES simulations, modeling of turbulent flow
AE5011 Computational Fluid Dynamics 1
This course contains the basics and equations of computational fluid dynamics, compressible flow based on the panel method. Introduction to turbulent flow, turbulent flow equations of motion, vorticity equations, use of statistical concepts in turbulent flow, Reynolds stress, equals average flow, energy cascade, Kolmogorov hypothesis, turbulent spectrum, near surface turbulent flow, boundary layer turbulent, turbulent flow shear free, DNS and LES simulation, turbulent flow modelling.
AE5013 Compressible Flow
This course consists of conservation of mass, momentum, and energy, 1D unsteady flow, acoustic speed of sound, compression and expansion waves, shock wave generation process, jump condition, normal shock wave and detonation wave, oblique Shock wave and Prandtl-Mayer wave, high temperature statistic mechanics, high temperature equilibrium flow, high temperature non-equilibrium flow, and viscous high temperature flow.
AE6090 Thesis I
The Master thesis is the capstone course of the Master program where students can integrate and apply skills and knowledge acquired in various academic activities in a design project, manufacturing of tools or design experiment in a research project or theoretical investigation of a specific problem. In thesis 1, students conduct literature studies and compile research proposals to be carried out with the supervisor.
AE6091 Thesis II
The Master thesis is the capstone course of the Master’s program where students have the opportunity to integrate and apply skills and knowledge acquired in various academic activities in a design project, manufacturing of tools, or design experiment in a research project or theoretical investigation of a specific problem.
AE5020 Advanced Flight Performance
This course discusses specific problems in aircraft flight operations related to its integral performance. Materials covered include calculation of take-off and cruise performance. In the first analysis, take-off distance will be calculated for normal flight conditions (all engine operating, AEO), in wind condition, in an inclined runway, with reduced thrusts, as well as one engine inoperative (OEI). In cruise analysis, fuel and time required will be calculated for ETOPS (extended twin- engine operation) and non-ETOPS flight conditions.
AE5021 Flight Control
This course discusses implementing the control system for an aerospace application, especially in aircraft automatic flight control systems. The content of this course covers the description of aircraft flight dynamics, basic principles of controlling aircraft, description of aircraft flight control devices, description of flight control system categorization, design of simple automatic flight control systems, introduction to flight dynamics, and control of rotary-wing craft (helicopter), introduction to flight control development process, some specifications/standard related to flying qualities.
AE5022 Advanced Flight Dynamics
This course is a continuation of the Flight Dynamic class in the Bachelor level (Aerospace Engineering Study Program), discusses the generation of forces and moments on various flight vehicles (aircraft, rockets, multi-copter, helicopter, and satellite), the development of Equation of Motion, steady-state condition analysis, static stability analysis, as well as the dynamic stability analysis.
AE5023 Advanced Astrodynamics
Orbital parameters variation (Non-Keplerian orbit with Special perturbation and General perturbation analysis) due to aspherical planetary gravitational field and due to non-Earth gravitational perturbation; Orbit design for Earth and interplanetary mission using patched conics method and numerical simulation; Orbit determination from two position vectors and time (Gauss dan Lambert-Euler methods), Restricted Three-body problem (basic equations, Lagrange Points, Halo orbit, Lisajouz orbit and ballistic capture)
AE5030 Advanced Finite Element Method
The course discusses types of element used in finite element modelling, consist of spring element, rod element, beam element, constant strain triangle, quadratic triangular element, rectangular bilinear element, isoparametric bilinear element, quadratic membrane element, and hexahedral-solid element. To complete the discussion, principle of minimum potential energy, strain energy, numerical
integration, flat plate bending, and Mindlin plate theory will be delivered too.
AE5003 Continuum Mechanics I
This course contains advanced analytical and numerical analysis techniques. The course consisted of four parts, namely Fourier Analysis, Stochastic Process, Advanced Optimization and Numerical Methods (Order of Convergence and Stability, Gauss Integration, Predictor-Corrector Method, Numerical Partial Differential Equations).
AE5031 Mechanics of Composite Structures
Introduction to composite materials, fiber and matrix system, manufacturing method, micromechanics, lamina theory, classical lamination theory, stress analysis, types of failures, failure criteria, failure analysis in composite structures, NDT, bolted joint, adhesive joint, buckling, impact load, sandwich structures.
AE5032 Experimental Solid Mechanics
This course introduces different aspects of measuring forces, pressure, displacements, stresses and strains for measuring the mechanical properties of material and structure. Students will be introduced to traditional methods for point wise measurements (e.g., strain gauges) and the associated underlying concepts. Recent advances in experimental techniques for full field displacement measurements will be also addressed. At the end students are given a project where they have to plan, execute and analyze data of an experiment and prepare the reports.
AE5040 Flight Operation
This course gives knowledge and skill in important aspects of flight operation planning, analytical methods of operational feasibility, and planning methodology. Civil aviation law and regulations are covered, as well as aviation indoctrination, aircraft weight and performance, navigation (technology, ICAO navigation chart, rules, and procedures) and air traffic management (flight rules, ATC clearance,
flight plans), meteorology, weight and balance, fuel conservation program, transportation of dangerous goods by air, flight planning and flight monitoring.
AE5041 Management of Product Development
The course discusses the fundamentals of new product development process and how to manage the project. Emphasis is given on the application of Systems Engineering in the whole process of product development and how to evaluate the effectiveness of the process by using the Concurrent Engineering Profile. Case studies are emphasized on the new aircraft development projects with real examples from the aircraft manufacturing industries. The course is completed with an extensive training using Microsoft Project to give a hands-on practical experience in planning and management of projects. The course contents are the challenges in new product development; product development process; organization; program management; project definition; project planning; economic decision making, cost evaluation; training and project in planning and management of new product development using Microsoft Project.
AE5042 Aviation Business
This course provide student an understanding on business aspects in aviation. After following the course students are expected to explain relations among law, policy and economy in aviation: global picture, transportation industry, manufacturing, MRO, airports, navigation, human resources and other supporting industries. Finally, students have to prepare a simple business plan related to
aviation.
AE5043 Design Project
This course provide student with a project task involving design or operation planning of an aeronautical product. The depth of design/plan will depend on the product complexity. The main thing is in the process of defining product/plan requirements and objectives. After completing this course, students shall have the ability to conduct a holistic and systematic synthesis process of an aeronautical
product or its operational aspects.
AE5002 Differential Equations
In this course, Ordinary and Partial Differential Equations will be discussed. Numerical solutions to ordinary differential equations will be presented. Then, several types of partial differential equations will be discussed. Both analytical and numerical methods for solving partial differential equations will be discussed. In more details, the following will be covered:
- Review of ODEs
- Numerical methods for solving ODEs
- Euler’s method
- Modified Euler’s method
- Fourth order Runge-Kutta method
- Multi-step method
- Introduction to PDEs
- First order PDEs and the Method of Characteristics
- Second order PDEs
- Solving PDEs with the Change of Variables method
- Numerical tools for solving PDEs
AE5004 Special Topics in Aerospace A
This lecture provides knowledge about updated or special problems in the field of aerospace that are not covered in courses in the existing curriculum. The contents of the course will be determined according to the topic given at the beginning of the semester. Lectures can be given face-to-face accompanied by examinations or course works
AE5014 Propulsion Aerodynamics
This course discusses airfoil and wing theory, cascade theory, aerodynamic characteristic and aerodynamic design of the axial compressor, centrifugal compressor, combustion chamber, and axial turbine aerodynamic characteristic and aerodynamic design of propeller and ducted fan.
AE5045 System Safety Engineering
The course gives an overview of analytical methods for aircraft system safety assessment. It covers an introduction to systems in general and basic systems analysis; requirements for safety analysis in airworthiness regulations; a brief overview of reliability theory and analysis; Markov analysis; analytical methods in system safety engineering: Fault Tree Analysis; Failure Modes and Effect Analysis;
Common Mode Failure analysis; and Analysis and investigation of aircraft accidents. Case studies and practical applications are extensively discussed.
AE5033 Aeroelasticity
This course covers aeroelastic problems that occur to aircraft structures. The first part, the structural dynamics, the discussion is started with the review of mechanical vibrations of SDOF and 2-DOF systems and followed with the analysis of multi degree and continuous systems. By using the equation of motion derived using Lagrange equation, their dynamic characteristics, i.e., the natural frequencies and the corresponding mode shapes, response to initial conditions and response to external excitations are evaluated. Some approximation methods to analyze continuous system are also discussed.
In the second part, the aeroelasticity, the discussion is started with static aeroelasticity that covers divergence and control reversal, followed with the dynamic aeroelasticity of 2D system which covers modelling using a typical section, U-g method, p-k method. Discussion of the dynamic aeroelasticity of 3D system which covers modelling, Padé approximation, and eigenvalue evaluation conclude the course.
AE5034 Structural Damage Tolerance
This course presents an introduction to structural damage tolerance analysis, especially for aircraft structure. The topics covered are about the correlation between fracture mechanics and damage tolerance analysis, including fatigue crack growth, stress intensity factor, fracture toughness, and residual strength. Damage tolerance analysis aims to predict the aircraft structure inspection interval.
Finite element tutorials to solve the stress intensity factor of simple fracture mechanic cases that are given. At the end of the semester, the students practice damage tolerance analysis of a primary aircraft structure under the practitioner’s supervision from the industry (PT Dirgantara Indonesia).
AE5044 Human Factor Engineering
The course objectives are to enable students to understand human aspects in the aviation industry, either from the aspects of design, flight operations, maintenance and organization, and management. The lecture is explained with related case studies based on practical experiences and aircraft accidents induced by human factors to grasp the practical application of the subjects covered.
The course covers an introduction to human factors (history, definition, SHEL concept, and industry needs); human errors in flight operations (type and source of errors, error classification, and models); the basics of aviation physiology (environmental factors, human senses, human information process, workload and stress, communication, behavioral categories, situational awareness); human factors in design (cockpit and cabin environment, anthropometry, design, and integration of cockpit-crew systems, checklists, and manuals); human factors in flight training and simulation (training principles and systems, benefits); and special issues (airline pilots, air traffic control, airline organization and management, aircraft maintenance).
AE5046 Aircraft Maintenance Management
This course discusses the background of maintenance planning and scheduling, the components of the maintenance organization, the maintenance planning and scheduling principles and the applications, the standard time establishment, maintenance load forecasting, and capacity planning, material and spare part management, control of maintenance performance, performance measurement, and the use of CMM for maintenance management
AE5047 Aircraft Accident Investigation
The course gives the knowledge and skill in performing an aircraft accident investigation and analysis. The lectures will deliver an overview of the philosophy, reasoning, methods and important issues in the analysis of probable causes of accident. The investigation techniques, framework of analysis, report writing and management of the investigation are explained, complemented with case studies. At the end of the course students are expected to be able to construct and deliver an investigation and analysis report of an aircraft accident and to explain and present the result and process of the investigation in a technical document and student-led seminar.
AE6000 Continuum Mechanics II
This course discusses the application of the continuum mechanical concepts to various physical cases including Nonlinear elastic solids, Linear elastic solids, and Newtonian fluids. Navier-Cauchy Equation, Beltrami Mitchell compatibility Equation, Betti’s reciprocal theorem, St. Venant, Potential flows, Laminar boundary layer, plane stress and strain, Airy’s stress function, Laplace, Poisson, and bi-harmonic equations, solutions with Green functions, acoustic wave propagation, amplitude up to fluid, characteristic method, dilated and shear waves in solid, shock wave and expansion in fluid, Variational Method, principle: Hamilton, virtual work, minimum potential energy in elasticity, Beam bending and
buckling.
AE6001 Special Topics in Aerospace B
This lecture provides knowledge, skill, and competence about updated or special problems in the field of aerospace that are not covered in courses in the existing curriculum. The course contents will be determined according to the topic given at the beginning of the semester. Lectures can be delivered face-to-face, accompanied by examinations or coursework.
AE6010 Computational Fluid Dynamics II
This course discusses the governing equations and its levels, concepts of discretization equation and space, transformation of the equations from physical space to computational space, numerical schemes for solving lower to higher level of governing equations including numerical panel method, Euler solution methods, Navier-Stoke methods. Direct Navier-Stokes rand for generating computational grids. The numerical methods include panel method, Euler solution methods, Navier-Stokes solution methods, as well as computational grids.
AE6020 Introduction to Flight Test Technique
The lecture discusses aspects of flight test techniques, namely Introduction to Flight Test Techniques, Pitot-Static Calibration, Longitudinal Static Stability Testing, Longitudinal Static Stability Testing, Longitudinal Maneuverability Testing, Lateral-Directive Static Stability Test, Dynamic Stability Test, Flight
Performance Test, and Case special case in-flight testing
AE6021 Advanced Control Engineering
This course covers some materials concerning multivariable system, pole placement methods, canonical form, state observer, reduced order observer, observer based controller, optimization problem, stationary condition, Lagrange multiplier, Hamiltonian function, Hessian matrix, free and fixed final state problems, Riccati equation, Optimal observer, Linear Quadratic Gaussian controller, Robust control, uncertainty description, sentivity functions, Robust stability, Robust performance, Small Gain theorem, H-inf problem, Digital control,
stability of digital system
AE6092 Minor Research
This course accommodates students to conduct a study on a particular topic based on the thesis supervisor’s approval. The topics in this study are determined to be able to directly support the research of Master’s Degree Thesis or other topics as long as the supervisor approves it. At the end of this lecture, students must submit a written report to the supervisor to be assessed.
Compulsory Courses for Doctoral Program in Aerospace Engineering Major
Semester 1 | Semester 2 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE7090 | Qualifying Examination | 3 | AE7091 | Dissertation Proposal Writing | 3 (2) | |
MS7000 | Philosophy of Science and Engineering | 2 | ||||
MS7001 | Methodology of Research | 3 | ||||
Semester 1 Credits: | 8 | Semester 2 Credits: | 3 | |||
Semester 3 | Semester 4 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE8091 | Research and Progress Report I | 5 (4) | AE8092 | Research and Progress Report II | 5 (4) | |
AE8093 | Paper in National Journals/Proceedings | 2 (2) | ||||
Semester 3 Credits: | 5 | Semester 4 Credits: | 7 | |||
Semester 5 | Semester 6 | |||||
Code | Courses | Credits | Code | Courses | Credits | |
AE9091 | Research and Progress Report III | 5 (4) | AE9098 | Research and Dissertation Writing | 5 (5) | |
AE9093 | Paper in International Journals/Proceedings | 3 (3) | AE9099 | Dissertation Defense | 3 | |
Semester 5 Credits: | 8 | Semester 6 Credits: | 8 |
Materials Engineering Study Program
Compulsory Courses for Undergraduate Program in Materials Engineering Major
Semester 1 | Semester 2 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MA1101 | Mathematics IA | 4 | FI1202 | Elementary Physics IIB | 3 |
FI1102 | Elementary Physics IB | 3 | KU1202 | Introduction to Engineering and Design | 3 |
KI1002 | General Chemistry B | 4 (1) | MS1200 | Engineering Drawing | 2 |
KU1001 | Sports | 2 | MS1210 | Statics | 3 |
KU1102 | Introduction to Computation | 3 | MA1204 | Mathematics IIC | 4 |
MS1100 | Introduction to Mechanical, Material and Aerospace Engineering | 1 | KU1024 | English | 2 |
KU1011 | Indonesian Language: Scientific Writing | 2 | |||
Semester 1 Credits: | 17 | Semester 2 Credits: | 19 |
Semester 3 | Semester 4 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MT2104 | Mathematics for Materials Engineering | 3 | MT2204 | Numerical Analysis of Materials Engineering | 2 |
MT2105 | Chemistry of Solid Materials (P) | 3 | MT2231 | Polymer Chemistry (P) | 3 |
MT2106 | Electronic & Magnetic Materials | 3 | MT2202 | Thermodynamics of Materials | 3 |
MT2100 | Introduction to Materials Engineering | 2 | MT2203 | Materialography and Diffraction (P) | 2 |
MT2101 | Mechanical Properties of Materials | 2 | MT2224 | Ceramic Materials | 3 |
MT2102 | Mechanics of Materials | 3 | MT2205 | Mechanical Testing Practical Course | 1 (1) |
MT2103 | Scpectroscopy and Thermal Analysis (P) | 2 | MT2216 | Metallic Materials | 3 |
MS2101 | Mechanical Drawing | 2 (1) | |||
Semester 3 Credits: | 20 | Semester 4 Credits: | 17 |
Semester 5 | Semester 6 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MT3101 | Transport Phenomena in Materials Engineering | 3 | MT3221 | Ceramics Processing | 3 |
MT3132 | Polymeric Materials (P) | 3 | MT3203 | Engineering and Characterization of Materials Practical Course | 1 (1) |
MT3103 | Materials Processing Practical Course | 1 (1) | MT3234 | Composite Materials (P) | 3 |
MT3004 | Electrochemistry and Corrosion | 3 | MT3205 | Computational Methods in Materials Engineering (P) | 3 (1) |
MT3114 | Phase Transformation | 3 | MT3236 | Polymer Processing (P) | 3 |
MT3125 | Ceramic Raw Materials (P) | 3 | KU2071 | Pancasila and Civic Education | 2 |
MT3116 | Manufacturing Processes of Metallic Materials | 3 | |||
Semester 5 Credits: | 19 | Semester 6 Credits: | 15 |
Semester 7 | Semester 8 | ||||
Code | Courses | Credits | Code | Courses | Credots |
KU206X | Religion and Ethics | 2 | MT4006 | Management and Entepreneurship in Materials Engineering | 2 |
MT4001 | Experimental Design | 3 | MT4005 | Principle of Materials Design | 2 |
MT4002 | Project on Materials Selection and Product Processing Oriented. | 3 | MT4091 | Industrial Internship | 2 |
MT4003 | Materials Technology Seminar | 1 | MT4092 | Final Project | 5 |
MT4004 | Aspects of Sustainability in Materials Technology | 2 | |||
Semester 7 Credits: | 11 | Semester 8 Credits: | 11 |
Elective Courses for Undergraduate Program in Materials Engineering Major
Code | Courses | Credits | Recommended Semester to Take |
MT3239 | Biobased Polymers | 3 | 6 |
MT4007 | Biomaterials | 2 | 7 |
MT4011 | Melting & Solidification Processing | 2 | 7 |
MT4012 | Corrosion Prevention Techniques | 2 | 7 |
MT4013 | Properties and Treatment of Surface | 2 | 7 |
MT4021 | Conventional Ceramics | 2 | 7 |
MT4022 | Ceramics Refractory | 2 | 7 |
MT4031 | Rubber Technology | 2 | 7 |
MT4032 | Fiber Technology | 2 | 7 |
MT4033 | Manufacturing of Polymeric Composite | 2 | 7 |
MT4041 | Non Destructive Testing | 2 | 7 |
MT4045 | Nano Materials | 2 | 7 |
MT4093 | Capita Selecta of Materials Engineering A | 2 | 7 |
MT4008 | Fracture Mechanics of Materials | 2 | 8 |
MT4009 | Materials Joining Technology | 2 | 8 |
MT4014 | Heat Treatment | 2 | 8 |
MT4023 | Cement and Concrete | 2 | 8 |
MT4024 | Ceramics Plant Design | 2 | 8 |
MT4042 | Optical Properties of Materials | 2 | 8 |
MT4043 | Magnetic Materials Engineering | 2 | 8 |
MT4044 | Failure Analysis | 2 | 8 |
MT4094 | Capita Selecta of Materials Engineering B | 2 | 8 |
MT4095 | Capita Selecta of Materials Engineering C | 3 | 8 |
MT4096 | Capita Selecta of Materials Engineering D | 3 | 8 |
MT3217 | Plasticity and Deformation Process | 3 | |
MT3228 | Advanced Ceramics | 3 | |
MT4046 | Degradation of polymer materials | 2 |
MT2100 Introduction to Materials Engineering
In this course, students are introduced to a body of knowledge in material engineering including job prospects in the field of material engineering as a provision and motivation to undertake lectures in a more focused material engineering study program.
MT2101 Mechanical Properties of Materials
This course discusses about mechanical properties of engineering materials. Mechanical properties of engineering materials can be obtained from several test such as: tensile and compressive, hardness, torsion, bending, impact, fatigue, creep and mechanical testing on surface such as wear test.
MT2102 Mechanics of Materials
Stress, Strain, Mechanical Properties of Material, Axial Load, Torsion, Bending, Shear, Combined Loadings, Stress Transformation, Mohr’s Circle, Failure Theory
MT2103 Spectroscopy and Thermal Analysis
History of Material Characterization; Qualititative and Quantitative Chemical characterization; Instrumental analysis, comprised of : spestoscopic method including UV/VIS spectroscopy, Infrared Spectroscopy, Atomic Emission Spectroscopy, Atomic Absorption Spectroscopy, Mass Spectroscopy, and Thermal methods (TGA, DTA, DSC, TMA)
MT2104 Mathematics for Materials Engineering
The topics that will be covered and discussed in this course are: vector space, matrix, differential, integral, ordinary differential equations, and partial differential equations and their application in materials engineering
MT2106 Electronic and Magnetic Materials
Materials structure; solid electronic materials structure; thermal, electric, dielectric, magnetic and optical properties of solid material; semiconductor and electronic device.
MT2105 Chemistry of Solid Materials
This course generally discusses crystal structure, crystal defects, the concept of bonding in solids, surface and interface properties of solids, solid synthesis, solid phase diagrams, reactions and solid kinetics, amorphous materials, micropore and mesoporous solids, carbon materials and nanostructures of materials.
MT2202 Thermodynamics of Materials
First and second thermodynamics law and its interrelations. Thermoelectric and magnetic effect. Analysis of close and open system of thermodynamics (steady and un-steady state). Thermodynamics equilibrium and uses of Clapeyron equation to build phase diagram. Solution thermodynamics and uses of GibbsDuhem equation to predict biner solution activity. Uses of Elingham diagram. Electrochemistry thermodynamics and Pourbaix diagram. Introduction of terner phase diagram and making process of isothermal diagram.
MT2203 Materialography and Diffraction
General introduction to microstructure and macrostructure, technique and application of metallography, introduction to optical and electron microscope, microhardness measurement and its application. Basic principle of X-ray diffraction, crystal geometry, the interaction between X-ray and crystal to produce diffraction, and its application.
MT2204 Numerical Analysis for Materials Engineering
This course deals with the numerical solution to mathematical problems. Course description includes approximation and round-off errors, truncation error and Taylor series, roots finding, optimization, curve fitting using regression and interpolation, matrix and linear algebra, numerical integration and differentiation, ordinary and partial differential equation.
MT2224 Ceramic Materials
Description of the conventional and the advanced ceramics. Ceramic and glass materials structure and its relation to mechanical, chemical, biological, thermal, optical, electrical, magnetic and nuclear properties. Defects and non-stoichiometry in ceramics related to electronic and ionic mobility. Phase equilibrium diagram application as basic for ceramic and glass materials forming processes. Discussion of main properties application of ceramics and glass and also its advanced technologies. Basic manufacturing process and example of the ceramic and glass products.
MT2205 Mechanical Testing Practical Course
Mechanical Testing Practical Course is a practicum activity that contains material on the mechanical properties of a material. Mechanical properties of the material are one of the main topics in materials engineering. Due to good knowledge of the mechanical properties of a material, we can know the quality of the material and its application in the industrial world. Through this practicum, students also learn about testing procedures and calculate the mechanical properties of the material. The practicum module consists of Tensile Test, Hard Test, Torsion Test, Flexure and Stiffness Test, Fatigue, and Impact Test
MT2216 Metallic Materials
Engineering material classification, comparison between metals, polymer, and ceramics. Crystallography theory : unit cel, crystallography planes, plane density. Defects in crystal: point defect, line defect, plane defect, dislocation . Diffusion in metals : substitutional diffusion, interstitial diffusion, steady state diffusion, nonsteady state diffusion, temperature effect. Strengthening mechanism of metals : alloying, strain hardening, grain refining, precipitation hardening, dispersion hardening, martensite strengthening. Phase diagram and phase transformation; phase transformation in low and medium carbon steels and phase transformation in white cast iron. Heat treatment: annealing, normalizing, spheroidizing, quenching, and tempering. Ferrous alloys: plain carbon steel, low carbon steel, medium carbon steel; cast iron: gray cast iron, ductile cast iron, white cast iron, malleable cast iron; stainless steel: ferritic, austenitic, martensitic, duplex, and precipitation hardened. Non-ferrous alloys: copper and its alloys, aluminium and its alloys, nickel and its alloys, superalloys, titanium and its alloys. Corrosion of metals: uniform, pitting, galvanize, stress corrosion cracking.
MT2231 Polymer Chemistry
Fundamentals of polymer chemistry; polimerization reaction; polymer structure; molecular weight; morphology; structure and properties relationship; effect of temperature to the properties; stability of polymer.
MT 3004 Electrochemistry and Corrosion
Thermodynamic and transport properties of aqueous and nonaqueous electrolytes, electrode/ electrolyte interface, kinetics of electrode processes; Electrochemical characterization: d.c. techniques (controlled potential, controlled current) and a.c. techniques (voltametry and impedance spectroscopy); Applications : electrowinning, electrorefining, electroplating, and electrosynthesis, electrochemical power sources (batteries and fuel cells)
MT 3101 Transport Phenomena in Materials Engineering
The transport of momentum, heat, and mass. Fundamental laws of transport phenomena, formulation of cell balance equation with geometrical factor, and their mathematical solution. Properties of transport: steady/unsteady system, system with generation, and mixed transport. Few examples of application in process.
MT 3103 Material Processing Laboratory
Material Processing Practical Course is a continuation of the Mechanical Testing Practical Course. After knowing the mechanical properties of a material and the correct testing procedure, then how to improve the mechanical properties of the material. In practice, we are often faced with situations where the material does not meet technical requirements, especially mechanical properties. In order to improve these mechanical properties, two general methods are often used, namely Cold Working and Hot Working. The advantages and disadvantages of the two methods will be studied. In addition, it is also studied the welding process related to phase and grain changes. To complement the knowledge of microstructures, a microstructure analysis practicum was also carried out. The coating process using the Anodizing method is also studied so students will have the basic knowledge of Surface Engineering.
MT 3114 Phase Transformation
A short review about free energy curve, and the theory about thermodynamic of solution. Interstitial diffusion theory, substitution diffusion, application in homogenization process, carburizing/decarburizing, and welding. The type of interface in alloy, interface properties, interfacial and grain theory. Homogeneous and heterogeneous solidification theory, and effect of heat transfer towards material’s structure. Phase transformation by diffusion and by non diffusion, its kind, theory of nucleation and its growth.
MT 3116 Manufacturing Process of Metallic Materials
Raw metal processing: Mineral processing (Iron, aluminum, titanium, and copper) up to a raw products. Indirect steelmaking process: Blast furnace, basic oxygen furnace compared to Direct steelmaking process: HYL process and electric arc furnace; Continuous casting compared to ingot casting; Aluminum production: Bauxite to alumina then aluminum (Alumina Hot electrolysis); Copper production: pyrometallurgy and hydrometallurgy. Foundry technology in component production and parameters involved; casting defects: composition segregation, dendrite structure, porosity, crack; homogenization process and thermo mechanical treatment. Metal forming technology: Hot forming, Cold forming; Metalurgical aspects on Hot and Cold forming. Welding and brazing process: gas welding, EAW, GTAW, SMAW, etc, welding defects. Machining process: conventional process: Turning, milling, shaping, planning, grinding etc. Tools geometry, types of tools materials. Non-Conventional processes: EDM, ECM, etc. Powder metallurgy: rationalization of P/M route to manufacture metallic components, Powder production, compaction, sintering; Final treatment and finishing: oil impregnation, shot peening, sizing, surface treatment, etc…
MT 3125 Ceramics Raw Materials
Knowledge about ceramic raw materials, consist of : rock and minerals as raw materials in general, descriptions of ceramic raw materials such as its genesis, type of deposits, and its distribution in Indonesia and also its functions as flux ( such as feldspar) , filler (such as silica) and plastic materials ( such as clay minerals), included its beneficiations, type of analysis in material characterizations and introduction of some advance ceramic raw materials.
MT 3132 Polymeric Materials
Type of polymer materials : thermosetting, thermoplastic, elastomer, additives, natural polymer, Polymer with special properties and it’s example; Relationship of structure and properties in polymer.
MT 3203 Engineering and Characterization of Materials Practical Course
Unlike Mechanical Testing Practical Course and Material Processing Practical Course which focuses on testing mechanical properties, metallurgy, and production processes, this practicum focuses on ceramic, polymer, and composite materials as well as several materials characterization techniques. From this practicum, it is hoped that students can understand well the manufacturing process and the mechanical properties of ceramics, polymers, and composites from the aspect of the manufacturing process and be equipped with modules on several material characterization techniques including the Non-Destructive Testing method. The practicum module consists of Composite Production and Characterization Process, Classical Laminate Theory, Refractory Thermal Conductivity and Diffusivity, X-Ray Diffraction Characterization, SEM & EDS Characterization and Young Modulus and Ceramic Porosity, Non-Destructive Testing – Coating Thickness Test and Pipe Walls.
MT 3205 Computational Methods in Materials Engineering
Evaluation of materials behavior in atomic as well as microscopic scale through computer simulation: molecular dynamic methods, phase-field method; constructing simple numerical simulation both by molecular dynamic or phase field method
MT3217 Plasticity and Deformation Process
Half of this course studies the continuum plasticity that begins with the plastic stress-strain relation formula for the crystalline material that is isotropic and anisotropic. The continuation of the study above is stress and strain analysis with classic technique (ideal work, slab analysis, upper-bound & slip-line field analysis). The other half of this course studies the metal characteristics/resistance to various plastic deformation modes. Those metal characteristics are then used as the basis in determining the formability parameter for various deformation processes in metal forming technology which is bulk & sheet metal forming. The main study at the end of this course will be filled with the introduction to plastic stress and strain analysis using a finite element method in the form of a software package.
MT 3221 Ceramics Processing
Ceramic processing involves some high technologies which are still being developed today. Selection of the right technology is influenced by the kind and the quality of the products, raw materials and the type of processes used. Ceramic processing technology is divided into 2 branches, conventional and nonconventional. Conventional branch is divided into 3 processing groups which is based on consistency of material to be formed, which are slip casting, plastic forming and powder pressing. Each of them has several different processes which depend on the final products. Besides that, there are also ceramic processing methods through chemical process like sol-gel and gas-solid reaction. Drying and sintering processes are done to green products or green body to reach certain mechanical properties. To fulfill dimensional requirement designed before, some products need correction by machining process. This machining process can be done before or after sintering process.
MT3228 Advanced Ceramics
Description and application of advance ceramics. Ceramics material structures and its relation with chemical, biology, mechanical, thermal, optical, electrical, magnetic, and nuclear properties. Manufacturing processes and example of advance ceramic product. Electronic and ionic mobility concept, non-stoichiometry in ceramics, and prediction of ceramic function. Study of several advance ceramic development.
MT 3234 Composite Materials
Introduction: the history of materials, definition and classification of composite materials, advantages and disadvantages of composite materials, applications of composite materials; properties of reinforced component and properties of the interface with its matrix; metal matrix composites, ceramic matrix composites, polymer matrix composites; micromechanics; macromechanics; characterization and quality control; properties of composite materials in various applications.
MT 3236 Processing of Polymeric Materials
Fundamentals of polymer processing : Rheology and blending polymer; polymer processing technologies : Extrusion, Molding injection, Blow molding, rotational molding, thermoforming
MT3239 Biobased Polymers
Basic polymer concepts (overview): definitions, chemical bonds, structures, molecular weights. Topics of bonding, structure, classification and application of biopolymers which include polysaccharides (starch, cellulose, chitin, chitosan, alginate), protein, natural rubber and derivatives, biopolymers from biosynthetic processes synthetic polymers from natural material monomers, polymer biodegradation, biopolymer applications (biomaterials, bioplastics)
MT 4001 Experimental Design
Basic introduction on experimental design and it’s objectives; Basic statistics: probability, parameters, statistics, external reference distribution, normal distribution, t-distribution, randomization, blocking; Comparing two entities : Significance test, confidence interval; Comparing more than two entities: anova, diagnostic checking, randomized blocks, latin square, graeco-latin square, hypergraeco-latin square; Factorial Design at two level : Class project
MT 4002 Project on Materials Selection and Manufacturing Process
- Products requirements for typical components/equipment: mechanical load requirement such as tension & compression loads, shear & bending moments, internal pressure, static, dynamic, impact loads. Environment loads: corrosion. Static & cyclic thermal. Electrical load. Magnetic load.
- Review of Stress calculation: Analytical & FEM modelling
- Review of material properties to be emphasized for the safety window properties
- Review of manufacturing processes to be emphasized on the advantages and disadvantages of the specific manufacturing route to prevent material degradation
- Understanding the material standards: scope of the standards, material processing routes, material properties, and acceptance criteria
- Individual assignment under supervision of one Lecturer; topics for the assignment is determined together between the student and the supervisor
- Reporting and Presentation in front of all students within one supervisor in Bahasa Indonesia and preferably in English
MT4003 Materials Technology Seminar
The topic of the materials technology seminar class related to:
- research development in the materials technology
- implementation of materials technology in industry and society
- aspects of environmental impact in the implementation of materials technology
- knowledge related to the working environment
- professional ethics
- preparation for a deal with the challenge in the working environment
- the current issue that can affect working environment
MT4004 Sustainability Aspect in Materials Technology
Basic understanding of environment and participation of material engineer; Global and national issues regarding to environment: contemplation of various recent global and national issue; Environmental aspects on material selection: strategic participation of material engineers on material planning, examples; Reduce-ReuseRecycle: Basic concept of 3R; Recycle of various material : metals, polymers, ceramics, and composites; Environmental policy in regional, national, and International; Group Project for Act locally in Bandung
MT 4005 Principle of Materials Design
Methodology of materials design covers identification of materials properties, parameter determination of materials chemistry and microstructure, formulation of criteria and parameter optimization and control during materials processing. Materials design under static load at room and elevated temperature using metals as case studies: alloy and microstructure design against yielding, creep and fracture. Materials design against impact and dynamic load.
MT 4006 Management and Entrepreneurship in Materials Engineering
Introduction and understanding on technology based creative entrepreneurship; Introduction to commercialization of technology; factors that affecting commercialization; Measure, achievement, from commercialization of technology; the essential elements of starting up a company, from visioning and ideation, forming a team, branding, product development, business model; prototyping, and go-to-market strategy; Innovation management; Marketing; Human Resource; government regulations and ownership; technological based product;
MT 4007 Biomaterial
This course generally discusses the concept of biomaterials, its history, development and application. This lecture contains a study of materials based on the structural concept of a biomaterial hierarchy that affects the performance of biomaterials, the classification of biomaterials based on the type of material used (metals, ceramics, polymers and composites), surface and bulk biomaterial properties as well as their processing and application
MT 4008 Fracture Mechanics of Materials
Basic introduction to fracture mechanics: background and application of fracture mechanics, calculation of stress intensity factors for various fracture geometries; factors affecting Crack Mechanics and its application in design: fracture toughness and KIC value, factors affecting fracture toughness value, CVN-KID–KIC correlation, conventional design and fracture mechanics design. Fatigue crack and the effects of environment: a basic introduction to fatigue crack, initiation and propagation of fatigue cracks in non-corrosive and corrosive environments.
MT 4009 Materials Joining Technology
Introduction, Type of metal joining process; Welding principle and definition, Type of Welding Process : Oxyacetylene, SMAW, GMAW, GTAW, SAW, ERW, EBW, etc, Understanding on the effect of welding process parameters on weld : current, voltage, welding speed, type and size of workpiece, type and size of filler metal, type of weld joint, welding position, pretreatment, PWHT, Metallurgy of Carbon Steel welding : Division of weld zone, dilution phenomena, isothermal curve, Thermal cycle, Weld microstructure in WM, HAZ; Welding procedure and testing as well as Weldablity test : WPS, WPQR, defect, Weld joint inspection : Destructive test and non-destructive test, Weld quality control, Stainless steel welding, welding of aluminium and aluminium alloy, welding of titanium and titanium alloy, superalloy welding : iron base, nickel base, and cobalt base superalloys, strength calculation of weld, Practical standard in welding; Type and techniques of Joining process in polymer materials and polymer based composites; Type and techniques of joining process in ceramics
MT 4011 Melting and Solidification Process
The main idea of this course is a detailed study on how materials (metals) solidification processes having an effect on material structure and properties. Thereby solidification processes is studied as an introduction by assuming it as pre-solidification phenomena. The part of solidification processes and phenomena in this lecture containing: Physical Chemistry, liquid metal thermodynamics, chemical and gas composition control in liquid metal, and inclusion forming. Solidification processing includes Heat Transfer, Mass Flow, phase nucleation-growth with chemical composition redistribution during solidification process, solidification front-modus and its effect on Solid Metal Morphology and structure. Processes in advanced solidification engineering (directional & monocrystal solidification) are also studied and compared with conventional solidification. At the end of this course, all above topics will be summarized in one chapter with introduction topic about modeling of solidification & Microstructural Evolution.
MT 4012 Corrosion Prevention Techniques
Understanding of corrosion phenomena as an electro-chemistry process; anodic reaction, cathodic reaction; polarization curve; corrosion types and mechanism: surface corrosion; pitting corrosion; intergranular corrosion; crevice corrosion; stress induced corrosion; selective leaching; galvanic corrosion; erosion corrosion; corrosion monitoring process; corrosion cases; corrosion prevention methods; e.g. cathodic protection, impressed current, cathodic protection
MT 4013 Properties and Treatment of Surface
Different methods for modification of material surfaces and surface treatment. Atomistic and microstructural description of surfaces together with morphological and surface topographical description of surfaces. The effect of surface energy, surface tension and wetting on the physical and mechanical properties of surfaces. Friction in sliding as well as rolling under dry and lubricated conditions. Different types of wear such as adhesive wear, abrasive wear, surface fatigue, fretting and erosive wear. Impact of corrosion on wear processes
MT 4014 Heat Treatment
This course contains a discussion of heat treatment processes of ferrous and non ferrous metals. The course also contains various heat treatment processes for specific purposes. The effect of alloying elements and hardenability of the steel are also discussed as well as the heat treatment furnace used. Subsequent discussion includes defects resulted by not proper heat treatment process, inspection and quality control methods used along with economic aspects in terms of energy usage in heat treatment process. Applications in industry are discussed using a case study of commercial materials materials, as example wear resistant steel or other steel materials that are relevant to technological developments.
MT4021 Conventional Ceramics
Ceramics are a material that has existed since the early history of human life. It begins with the interaction between clay, water and fire to produce a hard product that is used as a tool to complete a job. Mechanical properties are obtained through a phase transformation when kaolinite in clay is heated so that it becomes a needle-shaped mullite phase and has hard mechanical properties. The use of clay, feldspar, and quartz as materials for forming ceramics is known as a constituent triaxial composition, where the composition ratio will produce a varied product. The applications of conventional clay-based ceramics are tableware, household appliances such as wash basins, toilets, construction equipment such as bricks and others. For example, the strength of brick to make a house has mechanical properties between 20-105 MPa and this is influenced by the parameters of the raw material and the manufacturing process. Prices on the market also depend on the quality. In Indonesia, the conventional ceramic industry is the largest and largest in terms of number of products and income
MT4022 Ceramics Refractory#
High temperature operation in industrial require material that are able to maintain their strength at this condition, known as refractory materials. Refractory materials for industrial application are available from metal and ceramic. Steel industry will operate in the temperature until 1700°C, and for this purpose the ladle that made from steel (Tm 1535°C) must be coated by refractory material that can withstand this condition. Ceramic refractory material are Magnesia, Alumina, Silica, Magnesite, Dolomite, Chrome-Magnesite, Alumino-Silicates, binary system, ternary, quartenary etc. Refractory material will degrade over time, or experience failure that needed replacement of a new one. Characterization and identification are done based on ASTM testing standard for ceramic material. The way this material is installed is very important, errors in the selection and installation will cause damage that can effect the production process and be dangerous
MT 4023 Cement and Concrete Materials
Physical, mechanical and chemical properties of concrete and its constituent elements, the correlation between concrete and its resulting behavior, admixtures, high performance concrete, repair and rehabilitation of concrete structural components.
MT 4024 Ceramics Plant Design
Introduction to ceramic industry in Indonesia covering clay-based ceramics and non-clay-based ceramic industries also introduction to the equipment and technology used which come from overseas. At the beginning, the activity that can be done is maintenance of equipment and then the next step is designing the equipment or modifying ceramic processing machines for maintenance purpose or the making of ceramic plant. Understanding of raw material, the processes used must be mastered. The design activity includes the gathering of data and product information that will be manufactured, raw material selection, process design, machine selection and design by considering related aspect.
MT4031 Rubber Technology
Studying rubber materials in terms of structure, properties and processing technology. Can distinguish natural and synthetic rubber in terms of properties, modifications, and applications. Studying natural rubber processing technology and synthesis, compound, additives, vulcanization and characterization of rubber materials
MT4032 Fiber Technology
Introduction: fiber classification and terms used; fiber manufacturing technology, structure and fiber properties, including natural fibers, polyamide fibers, polyester fibers, polyethylene fibers, aramid fibers, glass fibers, carbon fibers (based on PAN and pitch), boron fibers, silicon carbide fibers (made by CVD and Pyrolysis processing) and alumina fibers; examples of the use of fiber in everyday life; textile manufacturing technology and its development as a base material for composite materials.
MT 4033 Manufacturing of Polymeric Composite
Introduction and application, forming material and its properties, manufacturing process such as preforms, dies, thermosetting & thermoplastic composite, secondary processing, machining, joining and repair, characterization & quality control, destructive and non-destructive test, mechanical testing, recycle, safe and healthy management in manufacturing process of composite materials.
MT 4042 Optical Properties of Materials
Study the basic characteristics of optical materials. Transmission materials, filters, mirrors, reflectors, polarizers, special optical properties of materials, and basic principles of optics manufacturing.
MT 4041 Non-Destructive Testing
The role of NDT in quality control; the application of NDT techniques; Various forms of defects that cannot be detected by NDT. The NDT methods discussed as follow; Visual inspection, Holographic Interferometry, Magnetic Particle & Magnetic Flux Leakage Inspection, Ferrography Testing, Dye/Liquid Penetrant, Eddy Current, Leak Detection, Acoustic Emission, Thermal Inspection Method, Ultrasonic Testing, Radiography, and also Thickness Measurement Method. Analysis and interpretation. Safety and inspection standards. Case study related to application of Conventional or Advanced NDT methods in the Industry.
MT 4043 Magnetic Materials Engineering
Magnetic field, flux density & magnetization, magnetic materials, measurement of magnetic property, property of magnetic materials, domain, wall and domain process, magnetization & hysteresis curve, magnetic order type, magnetic phase & critical phenomena, magnetic electronic moment, magnetic material engineering & application, soft magnet & electromagnet, permanent magnet, magnetic storage technology, material evaluation using magnetic technique.
MT 4044 Failure Analysis
The objective of failure analysis, review of failure mode in materials, yield criteria, stress concentration, static fracture, fracture mechanics review, fatigue fracture, creep failure, brittle fracture, corrosion failure. Characterization methods, failure analysis methods, reporting methods.
MT 4045 Nano Materials
This course generally discusses the concept of nanoscale materials, the effects of the dimensions of nanomaterials on the properties and applications of nanomaterials, synthesis and assembly processes for nanomaterials along with characterization methods, types of nanomaterials and applications of nanomaterials.
MT4046 Degradation of Polymer Materials
This course is intended for students with a strong interest to learn about degradation phenomena of polymeric materials. This course provides students with knowledge about thermal degradation, mechanical degradation, photo degradation, chemical degradation and biological degradation of polymers. Moreover, this course provides students related to mechanism of polymer degradation and case study related to polymer degradation.
MT 4091 Industrial Internship
Job training activity: work environment, case studies, analysis, synthesis (relevant with host industry and material engineering expertise area); Reporting and presenting
MT 4092 Bachelor Final Project
Final project is the final assignment of undergraduate education program (capstone course) where the students have the opportunity to integrate and using various knowledge and skills that have been obtained previously from various academic activities in the form of design project, tools making or experimental design, research project or theoretical study on a problem. At the final stage, the students will present the result in written report (paper), seminar and oral examination.
MT 4093 Special Topics in Materials Engineering A
The main purpose of this course is to build the specific proficiency in the field of Materials Engineering. The following are the specific objectives of the course:
- Give the opportunity for expertise from industry or other university,
- Build the basic qualification in the field of Materials Engineering, Give the basic knowledge for the accomplishment of Final Project or Thesis.
MT 4094 Special Topics in Materials Engineering B
The main purpose of this course is to build the specific proficiency in the field of Materials Engineering. The following are the specific objectives of the course:
- Give the opportunity for expertise from industry or other university
- Build the basic qualification in the field of Materials Engineering
- Give the basic knowledge for the accomplishment of Final Project or Thesis.
MT 4095 Special Topics in Materials Engineering C
The main purpose of this course is to build the specific proficiency in the field of Materials Engineering. The following are the specific objectives of the course:
- Give the opportunity for expertise from industry or other university
- Build the basic qualification in the field of Materials Engineering
- Give the basic knowledge for the accomplishment of Final Project or Thesis.
MT 4097 Materials Engineering Profession Development A
Course of Engineering Profession Development A, B, C are reserved for various activities related with the materials engineering profession endorsed by the faculty, e.g. national/international engineering competition, industrial exposure (internship), professional trainings. The implementation of this course is coordinated by a faculty member, in order to justify the credit to be taken according to the load of the activity. Students taking this course are expected to be able to enhance their capabilities in applying their knowledge and skills in real problems.
MT 4098 Materials Engineering Profession Development B
Course of Engineering Profession Development A, B, C are reserved for various activities related with the materials engineering profession endorsed by the faculty, e.g. national/international engineering competition, industrial exposure (internship), professional trainings. The implementation of this course is coordinated by a faculty member, in order to justify the credit to be taken according to the load of the activity. Studets taking this course are expected to be able to enhance their capabilities in applying their knowledge and skills in real problems.
MT 4099 Materials Engineering Profession Development C
Course of Engineering Profession Development A, B, C are reserved for various activities related with the materials engineering profession endorsed by the faculty, e.g. national/international engineering competition, industrial exposure (internship), professional trainings. The implementation of this course is coordinated by a faculty member, in order to justify the credit to be taken according to the load of the activity. students taking this course are expected to be able to enhance their capabilities in applying their knowledge and skills in real problems.
MT2106 Electronic and Magnetic Materials
Materials structure; solid electronic materials structure; thermal, electric, dielectric, magnetic and optical properties of solid material; semiconductor and electronic devices.
MT3217 Plasticity and Deformation Process
Half of this course studies the continuum plasticity that begins with the plastic stress-strain relation formula for the crystalline material that is isotropic and anisotropic. The continuation of the study above is stress and strain analysis with classic technique (ideal work, slab analysis, upper-bound & slip-line field analysis). The other half of this course studies the metal characteristics/resistance to various plastic deformation modes. Those metal characteristics are then used as the basis in determining the formability parameter for various deformation processes in metal forming technology which is bulk & sheet metal forming. The main study at the end of this course will be filled with the introduction to plastic stress and strain analysis using a finite element method in the form of a software package.
Compulsory Courses for Master Program in Materials Engineering Major
Semester 1 | Semester 2 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MT6000 | Research Methodology | 3 | MT6001 | Scientific Writing Methods and Ethics | 3 |
MT6002 | Engineering of Metallic Materials | 3 | MT6006 | Materials Degradation: Analysis, Modeling and Simulation | 3 |
MT6003 | Engineering of Ceramic Materials | 3 | MT6005 | Determination of Structure and Chemical Composition of Materials | 3 |
MT6004 | Engineering of Polymeric and Composite Materials | 3 | |||
Semester 1 Credits: | 12 | Semester 2 Credits: | 9 |
Semester 3 | Semester 4 | |||||
Codes | Courses | Credits | Code | Courses | Credits | |
MT6098 | Thesis I – Research Design | 3 (3) | MT6099 | Thesis II – Research Implementation and Publication | 3 (3) | |
Semester 3 Credits: | 3 | Semester 4 Credits: | 3 |
Elective Courses for Master Program in Materials Engineering Major
Code | Courses | Credits | Recommended Semester to Take |
MT5001 | Metallurgy of Metal Manufacturing Processes | 2 | 3 |
MT5002 | Failure Analysis and Engineering Life Assessment | 2 | 3 |
MT5003 | Surface Degradation of Metals: Corrosion and Wear | 2 | 3 |
MT5004 | Engineering of Bio-based Polymers | 2 | 3 |
MT5005 | Fabrication and Reparation of Polymeric Composites | 2 | 3 |
MT5006 | Physical Properties of Polymers | 2 | 3 |
MT5007 | Structure, Properties and Application of Refractory Materials | 2 | 3 |
MT5008 | Metal and Ceramic Powder Processing | 2 | 3 |
MT5009 | Engineering of Clay-Based Ceramics | 2 | 3 |
MT5010 | Biocompatibillity of Materials | 3 | 3 |
MT5011 | Processing of Nanomaterials | 3 | 3 |
MT5012 | Capita Selecta 1: Special Application of Materials | 3 | 3 |
MT5013 | Kinetics and Non-equillibrium Phase Transformation | 3 | 3 |
MT5014 | Plastic Deformation and Fracture of Metals | 3 | 3 |
MT5015 | Atomic-Scale Modeling of Materials | 3 | 3 |
MT5016 | Nondestructive Testing (NDT) and Inspection (NDI) | 3 | 3 |
MT5017 | Materials for Energy Conversion and Storage Devices | 3 | 3 |
MT5018 | Capita Selecta 2: Novel Characterization in Materials Science and Engineering | 3 | 3 |
MT6000 Research Methodology
The main idea of this course is about why and how materials design should be performed to obtain “the optimized material performance”. In Materials Engineering, most materials were designed based on results of research, mainly experimental research. Therefore, focus is directed to provide in-depth knowledge of research methodology and experimental research in a general sense as well as in materials engineering. Case study in experimental research and its reporting is also provided. Materials design, as a half part of this course, is discussed based on relationships between chemical composition, microstructure, processes and mechanical properties of materials. Design of metallic materials is elaborated in this course, meanwhile as course tasks, design of non-metallic materials/products will be discussed by students.
MT6002 Engineering of Metallic Materials
Introduction to alloy design (Formulating and using the relationship between chemical composition, microstructure, processing, and properties. Structure insensitive and sensitive properties. Strengthening mechanism (dislocation, grain boundary, solid solution and precipitation). Relationship between microstructure and properties of steels and cast irons. Alloy design for elevated temperature application. Relationship between microstructure and properties of superalloys.
MT6003 Engineering of Ceramic Materials
Description of the conventional and the advanced ceramics. Ceramic material structure and its relationship with chemical, biological, mechanical, thermal, optical, electrical, magnetic, and nuclear properties. Manufacturing process and example of tile ceramic product. Ternary phase diagram application, electronic and ionic mobility, and non-stoichiometry on ceramic. Discussion of main properties application of advanced ceramics.
MT6004 Engineering of Polymeric and Composite Materials
Introduction: the history of materials, classification of composite materials, advantages and disadvantages of composite materials, applications of composite materials; properties of reinforced component and properties of the interface with its matrix; metal matrix composites, ceramic matrix composites, polymer matrix composites; micromechanics; macromechanics; characterization and quality control; properties of composite materials in various applications.
MT6001 Scientific Writing Methods and Ethics
This course is a postgraduate course. This course will deliver everything that correlated with technique of scientific report’s writing (component of scientific report, grammar, and citation) as preparation for their thesis and research publication in the field of Materials Science and Engineering. At the end of the lecture, students are required to be able to write and present the scientific papers.
MT6006 Materials Degradation: Analysis, Modelling, and Simulation
Materials degradation elaborated with physical analysis and mathematical models. Deterministic and probabilistic approach of degradation rate. Inspection and maintenance aspects of degradation- induced failure. Degradation mechanism of metallic materials (metals). Degradation mechanism of polymeric materials (plastics).
MT6005 Determination of Structure and Chemical Composition of Materials
The course will give an overview of the physical methods of materials characterization techniques covering both microscopic and spectroscopic methods. We will present the rich and fast developing approaches for studying material structural, functionality and chemical behavior.
MT6098 Thesis I: Research Design
Depend on the research topic.
MT6099 Thesis II: Research Implementation and Publication
Depend on the research topic.
MT5001 Metallurgy of Metal Manufacturing processes
The main idea of this course is a detailed study on how materials (metals) solidification processes have an effect on material structure and properties. Thereby solidification processes are studied as an introduction by assuming it as pre solidification phenomena. The art of solidification processes and phenomena in this lecture contains: Physical Chemistry, liquid metal thermodynamics, chemical and gas composition control in liquid metal, and inclusion forming. Solidification processing includes Heat Transfer, Mass Flow, phase nucleationgrowth with chemical composition redistribution during solidification process, solidification front-modus and its effect on Solid Metal Morphology and structure. Processes in advanced solidification engineering (directional & monocrystal solidification) are also studied and compared with conventional solidification. At the end of this course, all above topics will be summarized in one chapter with an introduction topic about modeling of solidification & Microstructural Evolution.
MT5002 Failure Analysis and Engineering Life Assessment
The objective of failure analysis, review of failure mode in materials, yield criteria, stress concentration, static fracture, fracture mechanics review, fatigue fracture, creep failure, brittle fracture, corrosion failure: characterization methods, failure analysis methods, reporting methods.
MT5003 Surface Degradation of Metals: Corrosion and Wear
concepts and the development of surface engineering; The properties of solid surface; concepts and the development of superficial layers; concepts and the development of coating; Methods of surface treatment and applications.
MT5004 Engineering of Bio-based Polymers
Introduction of the polymer include relation chain structure and polymers properties, classification, tacticity; average molecular mass of polymer; concept and measurements: osmometry, tonometry, viscometry, gel permeation chromatography; condensation polymerization, addition polymerization: radical, cationic, anionic and coordination polymerization (Ziegler Natta); copolymerization: bloc, alternating, graft and random copolymerization; Structure, properties, and applications of biopolymers : polysaccharide include cellulose, amylose, amylopectin, natural rubber, lignin and its derivatives, protein and collagen, biodegradable polymers: types, structure, and its application, other biomaterial topics.
MT5005 Fabrication and Reparation of Polymeric Composites
Introduction and application of composites, physical and mechanical properties of composites, processing of polymer composites, preform, pressing thermoset and thermoplastic composite. secondary process of composites includes machining, joining and repair. characterization of composite materials. inspection of composite: destructive and non-destructive test. safety, recycle issue.
MT5006 Physical Properties of Polymers
This course introduces the properties of polymers with respect to the physics and chemistry of polymers in melt, solution, and solid state. Topics include the structure of polymer chains in solutions, melts, blends, and block copolymers; observation of the structure of glassy, crystalline, and rubbery states of polymers; polymer solutions, blends, crystallization; phase separation; elastic and viscoelastic properties of polymers.
MT5007 Structure, Properties and Application of Refractory Materials
Introduction, classification of refractory materials magnesia, alumina, silica, magnesite, dolomite, Chrome- Magnesite, Alumino-Silicates. Binary system, ternary systems, quaternary systems, etc. Refractory degradation Characterization and identification Standard.
MT5008 Metal and Ceramic Powder Processing
The subject is aimed at knowledge acquirement of processes and principles of powder metallurgy materials preparation. The student will gain knowledge from the field of metallic and nonmetallic powders production, methods of their homogenization, compaction, sintering theory and will become familiar with main factors influencing properties and application possibilities of thus prepared materials
MT5009 Engineering of Clay-Based Ceramics
Introduction. Interaction between clay, water, and fire for producing hard product due to the phase transformation from clay to mullite phase. The use of clay, feldspar, and quartz as the base material for ceramics. The application of conventional ceramics based on clay for eating utensils, housewares, such as a washbasin, toilet, bricks.
MT5010 Biocompatibility of Materials
This course includes fundamentals of materials science and engineering for biomedical application. The topics are molecular interaction between cell/tissue and materials, physical-chemical engineering to promote materials-tissue integration, biocompatibility assessment by in vitro, in vivo and clinical trial, also the clinical ethics. Furthermore, the regulation in biomaterials development also explained.
MT5011 Processing of Nanomaterials
It discusses the aspects of the physical chemistry of solid surface nanomaterial; the processing of several nanomaterials such as nanostructures with dimensions of zero (particles), one (wires and rods), and two (films); special nanomaterials. Nanomaterials synthesis methods: Physical Vapor Deposition (PVD), Chemical Vapor Deposition (CVD), Atomic Layer Deposition (ALD), Self-Assembly, Electrochemical Deposition, Sol-Gel, Electrospinning, Lithography, Template-Based Synthesis, Spontaneous Growth, Nanoparticles through Homogeneous Nucleation, Nanoparticles through Heterogeneous Nucleation
MT5012 Capita Selecta 1: Special Application of Materials
This course covers a specific topic in Materials Science Engineering and will be offered on subjects of interest typically on new or emerging topics.
MT5013 Kinetics and Non-equilibrium Phase Transformation
A short review about free energy curve, and the theory about thermodynamic of solution. Interstitial diffusion theory, substitution diffusion, application in homogenization process, carburizing/decarburizing, and welding. The type of interface in alloy, interface properties, interfacial and grain theory. Homogeneous and heterogeneous solidification theory, and effect of heat transfer towards material’s structure. Phase transformation by diffusion and by non diffusion, its kind, theory of nucleation and its growth.
MT5014 Plastic Deformation and Fracture of Metals
Half of this course studies the continuum plasticity that begins with the plastic stress-strain relation formula for the crystalline material that is isotropic and anisotropic. The continuation of the study above is stress and strain analysis with classic technique (ideal work, slab analysis, upper-bound & slip-line field analysis). The other half of this course studies the metal characteristics/resistance to various plastic deformation modes. Those metal characteristics are then used as the basis in determining the formability parameter for various deformation processes in metal forming technology which is bulk & sheet metal forming. The main study at the end of this course will be filled with the introduction to plastic stress and strain analysis using finite element method in the form of software package
MT5015 Atomic-Scale Modeling of Materials
The present lecture focus on the evaluation of materials behavior in atomic as well as microscopic scale through computer simulation. In detail, molecular dynamic methods will be given as an evaluation method in atomic scale, whereas phasefield method will be introduced as an evaluation method in microscopic scale. At the end of lecture, students are expected to be able using computational material for material design
MT5016 Nondestructive Testing (NDT) and Inspection (NDI)
The role of NDT in quality control; the application of NDT techniques; Various forms of defects that cannot be detected by NDT. Visual inspection, magnetic particle inspection, liquid penetrant, eddy current, ultrasonic testing, radiography, neutrography, indentation method, leak detection, acoustic emission, thermal inspection method, holographic interferometry, crack depth measurement methods, thickness measurement methods, vibration analysis, method for materials identification, microwave radiation. Analysis and interpretation. Safety and inspection standards. Case study on a component
MT5017 Materials for Energy Conversion and Storage Devices
In general, this subject introduces the fundamentals of several energy conversion and storage devices as well as the related materials. Some of the devices that will be covered are solar cells, fuel cells, batteries, capacitors, thermoelectrics, piezoelectrics and hydrogen storage
MT5018 Capita Selecta 2: Novel Characterization in Materials Science and Engineering
This course covers a specific topic in Materials Science Engineering especially in novel materials characterization methods and will be offered on subjects of interest typically on new or emerging topics.
Compulsory Courses for Doctoral Program in Materials Engineering Major
Semester 1 | Semester 2 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MS7000 | Philosophy of Science and Engineering | 2 | MT7091 | Research Proposal | 3 (2) |
MS7001 | Methodology of Research | 3 | |||
MT7090 | Qualification Examination | 3 | |||
Semester 1 Credits: | 8 | Semester 2 Credits: | 3 |
Semester 3 | Semester 4 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MT8091 | Research and Progress Report I | 5 (4) | MT8092 | Research and Progress Report II | 5 (4) |
MT8093 | Paper Writing in National Journals/Proceedings | 2 (2) | |||
Semester 3 Credits: | 5 | Semester 4 Credits: | 7 |
Semester 5 | Semester 6 | ||||
Code | Courses | Credits | Code | Courses | Credits |
MT9091 | Research and Progress Report III | 5 (4) | MT9098 | Research and Dissertation Writing | 5 (5) |
MT9093 | Paper Writing in International Journals/Proceedings | 3 (3) | MT9099 | Dissertation Defense | 3 |
Semester 5 Credits: | 8 | Semester 6 Credits: | 8 |