3. UNDERGRADUATE PROGRAM IN MECHANICAL ENGINEERING Program Speciication Teaching Institution Programme Tittle Class Final Award Accreditation Recognition Languages of Instruction Study Scheme Full Time Part Entry Study Duration

115

4. 3. UNDERGRADUATE PROGRAM IN MECHANICAL ENGINEERING Program Speciication

1. Awarding Institution Universit as Indonesia Double Degree: Universit as Indonesia and Part ner Universit y

2. Teaching Institution

Universit as Indonesia Double Degree: Universit as Indonesia and Part ner Universit y

3. Programme Tittle

Undergraduate Program in Mechanical Engineering

4. Class

Regular, Parallel and International

5. Final Award

Sarjana Teknik S.T Double Degree: Sarjana Teknik S.T and Bachelor of Engineering B. Eng

6. Accreditation Recognition

BAN-PT: A Accredited - AUN-QA

7. Languages of Instruction

Bahasa Indonesia and English

8. Study Scheme Full Time Part

Time Full Time

9. Entry

Requirements High school equivalent, or D3 Polytechnique equivalent, AND pass the entrance exam.

10. Study Duration

Designed for 4 years Type of Semester Number of Semester Number of weeks semester Regular 8 17 Short optional 3 8 11. Graduate Proiles: Engineering graduates who have abilities to design and analyze in the ield of mechanical engineer - ing with excellent leadership and professional characters. 12. List of Graduates Competency: Capable to understand and apply basic knowledge of mathematics, numerical methods, statis - 1. tical analysis and the basic sciences physics and chemistry required to achieve competence in the discipline of Mechanical Engineering. Capable of describing the problems with carrying out scientiic research and report the results 2. of experiments, including analysis of statistical data obtained. Capable to solve technical problems in the ield of thermo-luid systems and mechanical 3. design. Able to carry out product design innovations, including the identiication of needs for prod - 4. ucts, preparation of product speciications, developing design concepts, selection of design, engineering calculations and economic analysis, detail designand design aggregate compo - nent s, and design drawings. Able to design components, operate and manage the systems engineering-related aspects tak - 5. ing int o account energy conservat ion, manuf act uring, cost , saf et y, and sust ainabilit y. Able to utilize the methods, skills, and modern engineering equipment that suit the needs of 6. engineering work. Able to perform the selection of materials, processes, and automation systems that suit the 7. needs of engineering work. Capable of supervising, and able to make decisions. 8. Able to utilize and develop systems and computer-aided mechanical design. 9. Professional responsibility and commitment. 10. Able to identify entrepreneurial efforts, characterized by innovation. 11. Able to work effectively both individually and in multi-disciplinary or multi-cultural teams. 12. Explain the social and contemporary issues, such as social diversity and culturalappreciation, 13. communicate with various segments of society, the strategic beneits of lobbying, negotiation and mediat ion. Able to communicate effectively both in visual, written or verbal, including proiciency in a 14. f oreign language. Able to carry out the lifelong learning process. 15. U N D E R G R A D U A T E P R O G R A M 116 13 Classiication of Subjects No. Classiication Credit Hours SKS Percentage i University General Subjects 18 12,5 ii Basic Engineering Subjects 30 20,8 iii Core Subjects 68 47,2 iv Elective Subjects 16 11,1 v Internship, Seminar, Undergraduate Thesis, Project 12 8,4 Tot al 144 100 14. Total Credit Hours to Graduate 144 SKS Career Prospects Graduates of Mechanical Engineering has devoted itself in various ields, including automotive industry, oil and gas, heavy machinery, educat ional inst it ut ions, research inst it ut ions and ot her indust ries U N D E R G R A D U A T E P R O G R A M 117 Learning Outcomes Flow Diagram Graduates Profile Have the commitment in ethic profession also responsibility and professional commitment Capable of supervising , and able to make decisions . Capable of describing the problems with carrying out scientific research and report the results of experiments , including anal ysis of statistical data obtained Able to design products with innovations , including the identification of needs for products , preparation of product specifications , developing design concepts , selection of design , engineering calculations and economic analysis , detail design of components and design of the aggregates , as well as design drawings Able to design components , operate a nd manage the systems engineering - related aspects taking into account energy conservation , manufacturing , cost, safety, and sustainability . Able to carry out the lifelong learning process . Able to perform the selection of materials , processes , and automation systems that suit the needs of engineering work Able to utilize the methods , skills, and modern engineering tools necessary for engineering work Able to solve technical problems in th e field of thermo - fluid systems and mechanical design Able to utilize and develop systems a nd computer - aided mechanical design . Capable to understand and apply basic knowledge of mathematics , numerical methods , statistical analysis and the basic sciences physics and chemistry required to achieve competence in the discipline of Mechanical Engineering . Able to identify entrepreneurial efforts, characterized by innovation . Able to communicate effectively both in visual, written or verbal , including proficiency in a foreign language . Able to work effectively both individually and in multi- disciplinary or multi-cultural teams Explain the social and contemporary issues, such as social diversity and cultural appreciation , communicate with various s egments of society , the strategic benefits of lobbying , negotiation and mediation . U N D E R G R A D U A T E P R O G R A M analysis and the and 118 Flow Diagram of Subj ects The basic structure of Mechanical Engineering Undergraduat e Program shows t he cat egory and relation between courses in outline. In practice, groups of subjects distributed into the semester and each semester subject to the intake of sci - ence and t he f oundat ion f or t he next semest er, either directly or indirectly, so that a complete science of mechanical engineering at t he end of t he course. Before completing the undergraduate engineer - ing program with 144 credit units, the students of Mechanical Engineering Study Program have to accomplish: University Courses 18 credit units, Basic Engineering Courses 30 credit units, Basic Mechanical Engineering Courses 44 credit units,Mechanical Engineering Core Courses 40 credit units which consist of Manda - tory Core Courses 24 credit units and Elective Core Course 16 credit units and 12 credits units consist of Design Project, Internship and Under - graduat e Thesis. University courses are a group of subjects who provide the knowledge base and opening depth of knowledge and common knowledge at t he level of university higher education with an emphasis on knowledge, among others, social cult ural, art and hist ory t o st udent s and gradu- ates can understand, and interact with aspects of and non-t echnical areas t o be t he basis f or the development of engineering skills. Basic Engineering Courses are a group of courses that provide the basic knowledge to think logi - cally and systematically by utilizing the basic principles of science mathematics, physics, and chemistry and aspects of health, safety and en - vironment to be able to solve problems and de - velopment of mechanical engineering. at t he same t ime and cont inuously wit h The Ba- sic Engineering Courses, The Basic Mechanical Engineering designed to provide the knowledge, comprehension and basic competence in the ield of mechanical engineering with an empha - sis on the ability of designing and planning of mechanical systems with emphasis on the areas of energy conversion, design and production manuf act uring. The Mechanical Engineering Mandatory Core Courses is broadly follow The Basic Mechanical Engineering Courses given to increase the abil - ity and competence in Mechanical Engineering ield and rules in the application of these com - petencies, as well as provide an understanding in the ield of managerial and entrepreneurship development. The Mechanical Engineering Elective Core Courses given to increase the ability and com - petence speciically in Mechanical Engineering Field to build the more speciic competence or in the ield with a wider mechanical engineering knowledge. Further development of skills and capabilities in innovation and implementation ofmechani - cal engineering sciences, subjects administered through Design Project, Internship and Under - graduate Thesis. In an effort to give oppor - t unit ies t o st udent s who want t o increase and broaden their horizons, skills, knowledge and capabilities, then the student may be allowed to take subjects across departments faculties are offered by departments faculties in ac - cordance wit h t he t erms and condit ions set out . Apart from that, the Department of Mechanical U N D E R G R A D U A T E P R O G R A M Basic Courses Basic Engineering Courses 27 Credit Units Basic Mechanical Engineering Courses 48 Credit Units University Courses 18 Credit Units Mechanical Engineering Core Courses 43 Credit Units Mandatory Core Courses 23 Credit Units Elective Core Courses 20 Credit Units On The Job Training , Design Project , Undergraduate Thesis 12 Credit Units Internship 30 44 40 24 16 119 Engineering, also offers some of the subjects as subjects of cross department ofice that can be taken and open to students with different aca - demic disciplines to add insight and knowledge. The Curriculum was designed and developed so that the learning process can produce well com - petent graduates with the characteristic accord - ing to the education purpose, which are: Have a strong engineering knowledge. 1. The abilit y t o design and conduct t he re- 2. search and also the ability to analyze the dat a. The abilit y t o ident if y, f ormulat e and solve 3. the problems in mechanical engineering ield according to the study of new cases. The ability to design a system, component 4. or process of a mechanical system to fulill the requirement with considering and ap - plying the economical aspect. Leadership knowledge, a good communica - 5. t ion skill, t eamwork, knowledge and self improvement. U N D E R G R A D U A T E P R O G R A M The groups of the courses can be seen according to the characteristic and the education purposes that are expected as shown in igure below. 1 st SEMESTER 2 nd SEMESTER 3 rd SEMESTER 4 th SEMESTER 5 th SEMESTER 6 th SEMESTER 7 th SEMESTER 8 th SEMESTER Calculus Heat Mechanic Physic Engineering Drawing Basic Chemistry MPKT A English Linear Algebra Electrical, Magnetic, Wave Optical Physic Engineering Mathematics Statistics and Probability HSE Engineering Ethics Design Project Industrial Seminar Technopreneurship On the Job Training Undergraduate Thesis Sports and Arts Religion MPKT B Visualization and Mechanical Modelling Basic Mechanical Design Basic Thermodynamic Engineering Materials Basic Fluid Mechanics Kinematics and Dynamics Mechanical Design Material Selection and Manufacturing Process Introduction to Computer Heat and Mass Transfer Fluid System Mechanical Vibration System Control Metrology and Measurement Electrical Power Engineering Energy Conversion Conservasion Maintenance and Condition Monitoring Mechatronics Elective 1 Elective 2 Elective 3 Elective 4 Internship Engineering Computation 121 KODE MATA AJARAN SUBJECT SKS Semester 1 1 st Semester UIGE 6 0 0004 MPK Terintegrasi B Integrated Character Building Subject B 6 UIGE 6 0 0002 Bahasa Inggris English 3 ENGE 6 0 0001 Kalkulus Calculus 4 ENGE 6 0 0009 Menggambar Teknik Engineering Drawing 2 ENGE 6 0 0003 Fisika Dasar 1 Mekanika dan Panas Basic Physics 1 4 Subtotal 19 Semester 2 2 nd Semester UIGE 6 0 0001 MPK Terintegrasi A Integrated Character Building Subject A 6 UIGE 6 0 0005-9 Agama Religious Studies 2 UIGE 6 0 0003 OlahragaSeni SportsArts 1 ENGE 6 0 0002 Aljabar Liniear Liniear Algebra 4 ENGE 6 0 0004 Fisika Dasar 2 Basic Physics 2 4 ENME 6 0 0001 Visualisasi dan Permodelan Mesin Mechanical Visualization and Modelling 3 Subtotal 20 Semester 3 3 rd Semester ENME 6 0 0002 Matematika teknik Engineering Matematics 4 ENGE 6 0 0005 St at ist ik dan Probabilit as St at ist ic and Probabilit y 2 ENGE 6 000010 Kimia Dasar Basic Chemistry 2 ENME 6 0 0003 Material Teknik Material Engineering 4 ENME 6 0 0004 Termodinamika Dasar Basic Thermodynamics 4 ENME 6 0 0005 Dasar Perancangan Mekanikal Fundamental of Mechanical Design 4 Subtotal 20 Semester 4 4 th Semester ENEE 6 0 0031 Komputasi Teknik Engineering Computation 2 ENME 6 0 0007 Proses Manufaktur dan Pemilihan Material Material Selection and Manuf. Process 6 ENME 6 0 0008 Kinemat ika dan Dinamika Kinemat ics and Dynamics 4 ENME 6 0 0009 Mekanika Fluida Dasar Basic Fluid Mechanics 4 ENME 6 0 0010 Perancangan Mekanikal Mechanical Design 4 Subtotal 20 Semester 5 5 th Semester ENME 6 0 0011 Getaran Mekanis Mechanical Vibration 2 ENME 6 0 0012 Pengukuran dan Metrologi Measurement and Metrology 3 ENME 6 0 0013 Perpindahan Kalor dan Massa Heat and Mass Transfer 4 ENEE 6 0 0017 Teknik Tenaga List rik Elect rical Power Engineering 2 ENME 6 0 0015 Pengendalian Sist em Control System 4 ENME 6 0 0016 Sist em Fluida Fluid Syst em 3 Subtotal 18 Semester 6 6 th Semester ENME 6 0 0024 Etika Enjiniring Engineering Et hics 2 ENGE 6 0 0008 K3L Kesehatan, Keselamatan, dan Lindung Lingkungan Healthy, Safety and Enviroment 2 ENME 6 0 0017 Pemeliharaan dan Pemant auan Kondisi Mesin Maintenence and Condition Monitoring 3 ENME 6 0 0018 Konversi dan Konservasi Energi Energy Conversion and Conservation 4 ENME 6 0 0019 Mekatronika Mechatronics 4 ENME 6 0 0020 Tugas Merancang Design Assignment 4 Subtotal 19 Semester 7 7 th Semester ENME 6 0 0025 Kapita Selekta Industrial Indust rial Seminar 2 ENME 6 0 0021 Teknoprneurship Technoprneurship 2 Course Structure Undergraduate Program in Mechanical Engineering Regullar and Parallel U N D E R G R A D U A T E P R O G R A M 122 ENME 6 0 0022 Kerja Praktik Internship 2 Pilihan 1 Elective 1 4 Pilihan 2 Elective 2 4 Subtotal 14 Semester 8 8 th Semester ENME 6 0 0023 Skripsi Final Project 6 Pilihan 3 Elective 3 4 Pilihan 4 Elective 4 4 Subtotal 14 Electives can be taken from other department or selected from the Master Program, please see the following table. Fast Track students must take electives from a particular stream only Energy Conversion Stream 1. Code Mata Kuliah Subj ect Credits Semester 7 7th Semester ENME 8 0 0114 Teknik Pembakaran Combustion Engineering 4 ENME 8 0 0115 Motor Pembakaran Dalam Internal Combustion Engineering 4 ENME 8 0 0116 Pengukuran dan Visualisasi AliranTerapan Applied Flow Measurement and Visualiza - t ion 4 ENME 8 0 0117 Aplikasi CFD CFD Application Semester 8 8 th Semester Credits ENME 8 0 0111 Rekayasa Penukar Kalor dan Massa Heat and Mass Transfer Engineering 4 ENME 8 0 0112 Teknik Aerodinamika Aerodynamics Engineering 4 ENME 8 0 0113 Pembangkit an Daya Power Generation 4 Building Utility System and Fire Safety Stream 2. Code Mata Kuliah Subj ect Credits Semester 7 7 th Semester ENME 8 0 0214 Teknik Refrijerasi Refrigeration Engineering 4 ENME 8 0 0215 Teknik Keselamat an dan Prot eksi Kebakaran Fire Saf et y and Prot ect ion Engineering 4 Semester 8 8 th Semester Credits ENME 8 0 0211 Sist em Vent ilasi dan Tat a Udara Air Conditioning and Ventilation System 4 ENME 8 0 0212 Perancangan Sist em Ut ilit as Bangunan Building Ut ilit y Syst em Design 4 ENME 8 0 0213 Audit Energi Energy Audit 4 ENME 8 0 0202 Sistem Mekanikal dan Elektrikal Gedung Building Mechanical and Electrical System 4 U N D E R G R A D U A T E P R O G R A M 123 Design and Product Manufacturing Stream 3. Code Mata Kuliah Subj ect Credits Semester 7 7 th Semester ENME 8 0 0314 Fabrikasi Mikro dan Manufaktur Presisi Microfabrication and precision manufac - t uring 4 ENME 8 0 0315 Dinamika Sistem Mekanikal Dynamics of Mechanical System 4 ENME 8 0 0316 Pengembangan Produk Komposit Composite Product Development 4 ENME 8 0 0317 Finite Element dan Multiphysics Finite Element and Multiphysics 4 Semester 8 8 th Semester Credits ENME 8 0 0311 Perancangan untuk Manufaktur dan Perakit an Design For Manufacture and Assembly 4 ENME 8 0 0312 Kegagalan Mekanikal Mechanical Failure 4 ENME 8 0 0313 Kebisingan dan Getaran Noise and Vibration 4 Automation and Manufacturing System Stream 4. Code Mata Kuliah Subj ect Credits Semester 7 7 th Semester ENME 8 0 0413 System Machine Vision System Machine Vision 4 ENME 8 0 0414 Sistem Manajemen Produksi dan Mutu Quality and Production Management Syst em 4 Semester 8 8 th Semester Credits ENME 8 0 0411 CADCAM CADCAM 4 ENME 8 0 0412 Penilaian Kinerja Manufaktur Manufacturing Performance Assesment 4 ENME 8 0 0402 Otomasi dan Robotika Automation and Robotics 4 Vehicle Engineering and Heavy Equipment Stream 5. Code Mata Kuliah Subj ect Credits Semester 7 7 th Semester ENME 8 0 0513 Teknologi Mutakhir Kendaraan Modern Vehicle Technolgy 4 ENME 8 0 0514 Peralatan Pengeboran Minyak dan Gas Oil and Gas Drilling Equipment 4 Semester 8 8 th Semester Credits ENME 8 0 0511 Teknik Kendaraan Rel Railway Vehicle Engineering 4 ENME 8 0 0512 Mesin dan Peralatan Pengangkat Handling and Construction Equip - ment 4 For students who are willing and capable to continue the education program to pursue Masters in Engineering through the Fast track program, credit transfer can be performed as many as 20 credits. U N D E R G R A D U A T E P R O G R A M 124 The numbers of credits that can be transferred consist of: 4 credits from Engineering Mathematic course, 8 credits from 2 Mandatory Core Courses and 8 credits from 2 Elective Core Courses. Terms and conditions to become the participant of Fast Track program are: Expressed a desire to follow the Fast Track Program, by writing an application to the Head of 1. the Department of Mechanical Engineering with Study Plan includes a plan-making subjects in Semester 6 to 8 in the Bachelor of Engineering and subject Semester 1 to 4 the Master of Engineering Program in accordance with the Master of Engineering Program Specialisation, no later than the end of 5 t h Semester the undergraduate program. Have an excellent academic record, with 3.0 GPA until 5 2. t h semester and have passed all the basic courses. The students that follow the Fast Track program expressed their willingness to join this program 3. on f ull t ime basis. If the application of the fast track program can be approved by the Head of Department Study 4. Program, the student will be discussed along with the Academic Advisor for the finalization of the study plan in undergraduate and graduate program. The students from the undergraduate program that have the aggrement to join the fast track pro - gram have to reschedule their study in 7th and 8th semester to get along with their 1st and 2nd semester in graduate program. Mechanical Engineering Undergraduate International Program Curriculum The international program of mechanical engineering study is divided into two phase which are the irst will be done at University of Indonesia and the other phase will be completed at partner universities in Australia. There will be option to continue the second phase at UI. A student at the Department of Mechanical Engineering - Univesity of Indonesia must complete and pass 72 - 74credits over 4 semester before continuing to partner universities. The courses are classiied into General courses 7 credits; Basic courses 65 credits that consist of Basic Engineering courses 28 credits and Basic Mechanical Engineering courses 37credits. Table 6. Course Structure of Mechanical Engineering at QUT + Semester 5 s d 8 Basic Courses Basi c Engi neeri ng Courses 27 Credits Basic Mechanical Engi neeri ng Courses 48 Credits University Courses 7 Credits To be completed at patner universities 72 credits Mechanical Engi neeri ng Competence Course - Compulsory Mechanical Engi neeri ng Competence Courses - El ect i ve Undergraduat e Thesi s Final Project U N D E R G R A D U A T E P R O G R A M 125 CODE SUBJECT SKS 1 st Semester UIGE 6 1 0002 Academic Writ ing 3 ENGE 6 1 0001 Calculus 4 ENGE 6 1 0010 Basic Chemistry 2 ENGE 6 1 0009 Engineering Drawing 2 ENGE 6 1 0003 Basic Physics 1 Mechanic Heat 4 ENGE 6 1 0005 St at ist ics and Probabilit y 2 ENME 6 1 0024 Engineering Et hics 2 Subt ot al 19 2 nd Semester ENGE 6 1 0002 Liniear Algebra 4 ENGE 6 1 0004 Basic Physics 1 Elec, Magnet, Wave, and Optic 4 ENME 6 1 0001 Mechanical Visualization and Modelling 3 ENME 6 1 0003 Material Engineering 4 ENME 6 1 0005 Fundamental of Mechanical Design 4 SportsArts 1 Subt ot al 20 3 rd Semester ENME 6 1 0002 Engineering Matematics 4 ENME 6 1 0004 Basic Thermodynamics 4 ENME 6 1 0010 Mechanical Design 4 ENME 6 1 0008 Kinemat ics and Dynamics 4 ENEE 61 0017 Elect rical Power Engineering 2 Subt ot al 18 4 th Semester UIGE 6 1 0005-9 Religious Studies 2 ENGE 6 1 0008 Healthy, Safety and Enviroment 2 ENME 6 1 0006 Engineering Computation 2 ENME 6 1 0007 Material Selection and Manuf. Process 6 ENME 6 1 0009 Basic Fluid Mechanics 4 ENME 6 1 0011 Mechanical Vibration 2 Subt ot al 18 5 th Semester UIGE 6 1 0001 Integrated Character Building Subject A 6 ENME 6 1 0012 Metrology and Measurement 3 ENME 6 1 0013 Heat and Mass Transfer 4 ENME 6 1 0015 System Control 4 ENME 6 1 0016 Fluid Syst em 3 Subt ot al 20 6 th Semester UIGE 6 1 0004 Integrated Character Building Subject B 6 ENME 6 1 0017 Maintenance and Condition Monitoring 3 U N D E R G R A D U A T E P R O G R A M 126 CODE SUBJECT SKS 6th Semester ENME 6 1 0019 Mechatronics 4 ENME 6 1 0021 Teknoprneurship 2 ENME 6 1 0020 Design Assignment 4 Subt ot al 19 7 th Semester ENME 6 1 0025 Capita Selecta 2 ENME 6 1 0018 Energy Conversion and Conservation 4 ENME 6 1 0022 Internship 2 Elective 1 4 Elective 2 4 Subt ot al 16 8 th Semester ENME 6 1 0023 Final Project 6 Elective 3 4 Elective 4 4 Subt ot al 14 ELECTIVES ENME 8 0 0411 CADCAM 4 ENME 8 0 0113 Power Generation 4 U N D E R G R A D U A T E P R O G R A M 127 Year 3 Semester 5 UQ July Credits Year 3 Semester 6 UQ March Credits KODE Course Title KODE Course Title ENB222 ENB231 ENB311 MAB233 Thermodynamics 1 Materials and Manufacturing 1 St ress Analysis Engineering Mathematics 3, or Elect ives 12 12 12 12 ENB215 ENB321 ENB331 Fundament als of Mechanical Design Flu - ids Dynamics Materials and Manufac - turing 2 Elective Minor 12 12 12 12 subt ot al 48 subt ot al 48 Year 4 Semester 7 UQ July Credits Year 4 Semester 8 UQ March Credits KODE Course Title KODE Course Title ENB312 ENB316 ENB421 Dynamics of Machinery Design of Machine Elements Thermodynamics 2 12 12 12 BEB801 ENB313 ENB317 Project 1 Automatic Control Design and Mainte - nance of Machinery Electives Minor 12 12 12 12 subt ot al 36 Subt ot al 48 Table 7. Course Structure of Mechanical Engineering at University of Queensland For July Int ake Year 3 Semester 5 UQ July Credits Year 3 Semester 6 UQ March Credits KODE Course Title KODE Course Title MECH2700 MECH3100 MECH3200 MECH3410 Engineering Analysis I Mechanical and Space Syst em Design Advanced Dynamics and Vibrat ion Fluid Mechanics 2 2 2 2 MATH2010 STAT2201 MECH3300 MECH3400 MECH3600 Analysis of Ordinary Dif f erent ial Equat ion Analysis of Engineering and Scientiic Data Finite Element Method and Fracture Mechanics Thermodynamics and Heat Transf er Engineering Management and Communication 1 1 2 2 2 subt ot al 8 subt ot al 8 Year 4 Semester 7 UQ July Credits Year 4 Semester 8 UQ March Credits KODE Course Title KODE Course Title MECH4501 Engineering Thesis Elect ive Elect ive Elect ive 4 2 2 2 MECH4501 METR3200 Engineering Thesis Introduction to Control Syst em Elect ive Elect ive 4 2 2 2 subt ot al 10 subt ot al 10 U N D E R G R A D U A T E P R O G R A M 128 List of Electives at UQ is called Part B Electives B2 - Advanced Electives Code Course Title Credits AERO3100 CHEE4302 ELEC2003 ENGG4101 ENGG4102 ENGG4103 MECH3250 MECH3305 MECH3750 MECH4301 MECH4304 MECH4450 MECH4460 MECH4470 MECH4480 MECH4552 MECH4800 MECH4950 MECH4951 METR3100 METR4202 TIMS3309 Aerospace Materials Electrochemistry Corrosion Electromechanics Electronics Systems Engineering Design Management Advanced Product Design Methods Engineering Asset Management Engineering Acoust ics Science Engineering of Metals Engineering Analysis II Materials Selection Net Shape Manufacturing Aerospace Propulsion Energy Environment Hypersonics Rareied Gas Dynamics Computational Fluid Dynamics Major Design Project [5] Space Engineering Special Topics C Special Topics D Sensors Actuators Advanced Control Robotics Fundamentals of Technology and Innovation Management 2 2 2 2 2 2 2 2 2 2 2 2 2 2 2 4 2 2 1 2 2 2 List of Electives at UQ is called Part B Electives B3 - Other Electives Code Course Title Credits MATH1050 SCIE1010 Mathematical Foundations [6] Introduction to Research Practices - The Big Issues 2 2 Table 8. Course Structure of Mechanical Engineering at Curtin University For July Int ake Year 3 Semester 5 Curtin July Credits Year 3 Semester 6 Curtin March Credits KODE Course Title KODE Course Title 307660 307664 308803 308810 308815 3864 Engineering Sust ainable Development Engineering Law Mechanical Design Fluid Flow Modelling Automatic Control Elect rical Plant 12.5 12.5 25 25 12.5 12.5 308801 308812 308813 308814 Thermal Engineering Processes Indust rial Technology Materials Dynamic Syst ems 25 25 25 25 subt ot al 100 subt ot al 100 U N D E R G R A D U A T E P R O G R A M 129 Year 4 Semester 7 Curtin July Credits Year 4 Semester 8 Curtin March Credits KODE Course Title KODE Course Title 5051 Mechanical Project Optional Unit Optional Unit Optional Unit 25 25 25 25 308821 310544 Mechanical Project Prof essional Pract ice Optional Unit Optional Unit 37.5 12.5 25 25 subt ot al 100 subt ot al 100 List of Optional Units at Curtin Year 4 Semester 7 Curtin July Credits Year 4 Semester 8 Curtin March Credits KODE Course Title KODE Course Title 12907 12911 12925 302862 302866 Design For Manufacturing Automatic Control Fluid Mechanics Finit e Element Analysis Noise 25 25 25 25 25 12926 302863 302864 310545 312200 4282 Materials Vibrat ion Heat Transfer Design Methodology Sust ainable Energy Syst ems and Technologies Mechanical Measurements 25 25 25 25 25 25 Transition Policy from the 2008 to the 2012 Curriculum For the Mechanical Engineering Undergraduate Program there are no speciic transition rules to adjust the previous curriculum with the new curriculum. The change wit hin t he new curriculum is t he addit ion of The Int egrat ed Character Building B MPKT B course with 6 credit s. In t he new curriculum t he st udent s have to take 4 elective courses with 16 total credit s. U N D E R G R A D U A T E P R O G R A M 130 Course Description UIGE600001 UIGE610001 MPKT A INTEGRATED CHARACTER BUILDING A 6 SKS Refer to Page 78 UIGE600004 UIGE610004 MPKT B INTEGRATED CHARACTER BUILDING B 6 SKS Refer to Page 78 UIGE600002 ENGLISH UIGE610002 ACADEMIC WRITING 3 SKS Refer to Page 78 UIGE600003 UIGE610003 SPORTS ARTS 1 SKS Refer to Page 81 ENGE600001 ENGE610001 CALCULUS 4 SKS Refer to Page 78 ENGE600010 ENGE610010 BASIC CHEMISTRY Refer to Page 79 ENGE600003 ENGE610003 BASIC PHYSICS 1 4 SKS Refer to Page 79 ENGE600004 BASIC PHYSICS 2 4 SKS Refer to Page 81 ENGE600002 ENGE610002 LINEAR ALGEBRA 4 SKS Refer to Page 79 UIGE600005-9 UIGE610005-9 RELIGIOUS STUDIES 2 SKS Refer to Page 80-81 ENGE600005 ENGE610005 STATISTICS AND PROBABILITY 2 SKS Refer to Page 82 ENGE600008 ENGE610008 HEALTH, WORK SAFETY, AND ENVIROMENT 2 SKS Refer to Page 82 ENGE600009 ENGE610009 ENGINEERING DRAWING 2 SKS Learning Obj ectives: Course participants are able to transfer geometric component by drawing according to standard draw which is recognized by International Standard Organization ISO. Students understand the theory and procedure of engineering drawing based on ISO standard. Students are able to read, interpret, and transfer 2D3D geometric draw from component or con - st ruct ion. St udent s are able t o draw t he ort hogo- nal projection based on ISO standard. Syllabus: Illustration: Function and beneit of Engineering Drawing; SAP; Measurement and Evaluation; Introduction to drawing equipment; Basic definition of geometric, paper format, draw regulation, line, ield, line coniguration, basic geometric form; Visualization geometric: Skew projection and isometric, function and line types, coniguration geometric form; Orthogonal Projection: Projection standard, viewing concept, width display principle; Advanced orthogonal projection: Circle region concept, special region concept, trimming concept, display width, refrac - t ion. Pre-requisites: - Text Books: ISO 1101, Technical Drawings, International 1. Organization for Standardization. A.W. Boundy, Engineering Drawing , McGraw- 2. Hill Book Company Colin Simmons Dennis Maguire, Manual of 3. Engineering Drawing, Edward Arnold Warren J. Luzadder, Fundamentals of Engi - 4. neering Drawing, Prentice-Hall, Inc. Giesecke-Mitchell-Spencer-Hill-Dygdon-No - 5. vak, Technical Drawing, Prentice Hall Inc. U N D E R G R A D U A T E P R O G R A M 131 ENME600001 ENME610001 MECHANICAL VISUALIZATION AND MODELLING 3 SKS Course Obj ective: Students have the basic ability to visualize the information content of one component effectively, capable to create a model for 2D and 3D visualization with utilize the software and interprete the subject into a drawing that can be used as working guidance and can be underst and clearly by t he user. Syllabus: The purpose and the advantage of the drawing in the design and manufacturing process, sur - f ace working qualit y and t olerance, st andard and marking classiication of working quality, standard and marking classiication of working t olerance, Welding const ruct ion, st andard and marking of kampuh seam? and welding, line diagram, 2D and 3D representation method, int roduct ion t o modeling sof t ware int erf ace, modeling, manipulation and 2D 3D visual - ization. Requirement: Engineering Drawing References: A. W. Bou n d y, En gi n e e r i n g Dr aw i n g, 1. McGraw-Hill Book Company Colin Simmons Dennis Maguire, Manual 2. of Engineering Drawing 4 t h edition 2012, Elsevier. ISO 1101, Mechanical Engineering 3. Drawings, International Organization for Standardization. Japanese Industrial Standard, Technical 4. Drawing for Mechanical Engineering, Japanese Standards Association. Warren J. Luzadder, Fundamentals of 5. Engineering Drawing, Prentice-Hall, Inc.. ENME600002 ENME610002 ENGINEERING MATHEMATICS 4 SKS Course Obj ective: Complete student’s anylitical ability. Students under st and and abl e t o use t he advances mathematical concepts in order to solve the engineering problems. Syllabus: Introduction to differential equation, 1 st order differential equation, 2 nd order di f f erent i al equat ion, higher order dif f erent ial equat ion, vector analysis, vector differential, grad opera - t ion, divergence and culr, vect or int egrat ion, laplace transform, laplace transform to solve t he dif f erent ial equat ion, f ourrier t ransf orm, convulsion, numerical met hod, root of equa- t i on, numer i cal di f f er ent i at i on, numer i cal int egral. Requirement: Calculus, Linear Algebra References: Croft, A, et.al, Mathematics for Engineers, 1. 3rd Edition, 2008, Prentice Hall Chapra S.C., Canale, Numerical Methods 2. for Engineer, 6th Edition, 2010, Mc Graw Hill Kreyszig, E, Advanced Engineering 3. Mathematics 10th Edition, John Wiley and Sons ENME600003 ENME610003 ENGINEERING MATERIALS 4 SKS Course Obj ective: Engi neer i ng mat er i al s ar e one of t he basi c knowledge in ield of design, especially in mechanical engineering. From t he discussion of t he behavior of several mat erials, t he st u- dents are expected to have the overview about several t hing t hat has t o be t he concern relat ed to the working process or the speciic need. The students are expected to have the basic ability to identify and explain the nature and behavior of mat erials relat ed t o t he t reat ment in working process and speciic need. Syllabus: Introduction to the importance of the engineer - ing mat erial science in mechanical engineering, at omic st ruct ure, cryst alic mat erial, met al and non metal material, process, phase diagram and solidiicatiom, heat treatment process, mechani cal behavi or of cr yst al i c mat er i al , elastic material, plastic deformation, crystal plasticity, method of material mechanical t est i ng, di sl ocat i on, st r engt heni ng, f ai l ur e and remaining lif et ime of mat erial, int roduc- t ion t o mechanical crack and st eel mechanical st ruct ure behavior, mat erial st ruct ure degrada- tion, corrosion process, corrosion prevention, Oxidation, wear and erotion, concrete mate - rial behavior, wood, cement and it s st ruct ure behavior. Requirement: - References: Kalpakjian, Manufacturing Engineering and 1. Technology, Addison Wesley- 2008 Thomas H. Courtney, Mechanical Behavior 2. of Materials, 2 nd Edition McGraw-Hill Book Co. - 2005 R.A. Higgins, Property of Engineering 3. Materials, Edward Arnold - 1994 Flinn Trojan, Engineering Materials and 4. Their Applications, John Wiley Sons, Inc.- 1995 James A. Jacobs Thomas F. Kilduff, 5. Engineering Material Technology, Prentice- Hall, Inc. - 2001 U N D E R G R A D U A T E P R O G R A M 132 ENME600004 ENME610004 BASIC THERMODYNAMICS 4 SKS Course Obj ective: This course introduces the basic concept of thermodynamics and its application in real life and gives t he underst anding about t he design of t hermodynamics syst em. Syllabus: Scope and basic understanding of thermody - namics system, temperature concept, pres - sure, thermodynamics equilibrium, reversible irreversible process, zero law of thermody - namics and absolute temperature, irst law of t hermodynamics, second law of t hermody- namics, thermodynamics equation, gas power cycle, gas compressor, combustion engine cycle, internal combustion engine , simple gas t urbine cycle, brayt on’ s cycle, st irling’ s cycle, steam power cycle, refrigeration, carnot’s cycle, simple rankine’s cycle, rankine’s cycle with modiication, biner cycle, phsycometrich chart , cooling t ower, real gas, real gas equa- tion, enthalpy and entrophy. Requirement: - Referencess: Michael J. Moran, Howard N. Shapiro, 1. F u n d a m e n t a l s o f E n g i n e e r i n g Thermodynamics, 5th Edition, John Wiley Sons, 2004. Reynolds W.C., Perkins H.C., Engineering 2. Thermodynamics, Mc. G. Hill . Zemansky , Aboot , van Ness, Basic 3. Engineering Thermodynamics, McGraw Hill Kennet h War k Jr. Ther m odynam i cs , 4. Mc.Graw Hill H.D. Baehr, Termodynamik , Springer 5. Verlag ENME600005 FUNDAMENTAL OF MECHANICAL DESIGN 4 SKS Course Obj ective: Thi s cour se gi ves t he basi c know l edge i n mat erial st rengt h and mechanics of syst em t hat will be needed in engineering of machine element s. Syllabus: Design consept, load and support reaction in t he const ruct ion, normal f orce diagram, shear and moment in beam, cal cul at ions in beam construction, Trusses, Frame Machine, 2 nd Area Moment and Intertia, stress and strength, normal st ress, t orsion and bending, def orma- t ion, beam wit h indet erminat e st at ic l oad, Buckling, solid st at e mat erials, f ailure analysis f or st at ic load, f ailure analysis f or cyclic load and shock load, basic and simple application of FEM in design, Final Assignment : Application of calculation and FEM in simple axis design. Requirements: Mechanical Visualization and Modeling ; Engineering Materials References: 1. Beer, Ferdinand P, Mechanics for Engineers: STATICS, Mc GrawHill. 2. Hibbeler RC, Mechanics of Materials, 5th ed., Prentice Hall, 2003. 3. Riley, F William, Engineering mechanics: STATICS, John wiley sons 4. Hamrock, Fundamental of Machine Element, Mc Graw-Hill. 5. Shigley, Joseph Edward, Mechanical Engi - neering Design, McGrawHill. 6. Kurowski, P.M., Finite Element Analysis for Design Engineers, SAE International,2004 ENEE 6 0 0031 ENEE 6 1 0031 NUMERICAL COMPUTATION 2 SKS Refer to Page 179 ENME600007 ENME610007 MATERIAL SELECTION and MANUFACTURING PROCESS 6 SKS Course Obj ective: To give t he knowledge, underst anding and com- petence about the theory, application method and product manufacturing process technology t hat consist of : charact erist ic and how t he process work, process constraint, force and energy that needed in process, the effect of the process parameter to the product quality and the relation between process and mate - rial t o t he mat erial charact erisc t hat needed in every process. Syllabus: Manufacturing process and production system, mat erials in manuf act ur, t heory and met hod in met al cast ing, t heory and met hod of bulk f ormat ion, t heory and met hod of sheet met al forming, theory and method of powder met - allurgy, theory and method of machining metal cutting process, theory and precess of product surface quality improvement, theory and method of joining, theory and method of prototyping process, characteristic of en - gineering mat erial s, correl at ion of mat erial and process characteristic, process parameter cont rol of mat erial, Desing of mat erial selec- tion and manufacturing process that related t o t he market needs assignment , Laborat ory act ivit y. Requirement: Engineering Material U N D E R G R A D U A T E P R O G R A M 133 Referencess: Ashby, Material selection in Mechanical 1. Design, Butterworrth Heinneman, 2005 Ashby, Material selection in Mechanical 2. Engineering, Pergamon Press, 2004 John A. Schey, Introduction to Manufacturing 3. Processes, McGraw Hill, 1999 Degarmo, E. Paul, Materials and Processes 4. in Manufacturing, Prentice Hall Int. Inc, 8th edition, 2005 Kalpakjian, S, Manufacturing Engineering 5. and Technology, McGraw Hill 4th edition, 2001. Buku Panduan Prakt ikum Proses Produksi, 6. Departemen Teknik Mesin FTUI. ENME600008 ENME610008 KINEMATICS and DYNAMICS 4 SKS Course Obj ective: The st udent s have t he abilit y t o underst and the key concept of kinematics and dynamics of mechanical system and capable to analyse t he movement , vel ocit y, accel erat ion f orca and equilibrium. Syllabus: Vect or velocit y analysis, f ree body diagram, linier motion, velocity polygon, 2D motion, rectangular coordinates, N-T and pole, rela - tive motioan and velocity of 2 coinciderelate point, Coriolis acceleration and stiff body kinematics, Inertia Force, Statics, particle system, works, energy, impuls, linear-angular moment um, st if f body mot ion, works and en- ergy, relat ive mot ion, rot at ing mass balancing and back forth motion, cam dynamics and Giroscope. Requirements: Mechanical visalization and modeling, Fun - damental of Mechanical Design, Mechanical Design References: Meriam Kraige, Engineering Mechanics. 1. Vol-2, Wiley New York.4th, 1998. Holowenko, Dynamics of Machinery, John 2. Wiley, 1995. Beer Johnston, Mechanics for Engineer, 3. Dynamics, Mc Graw-Hill, 1976. ENME600009 ENME610009 BASIC FLUID MECHANICS 4 SKS Course Obj ective: Fluid meachanic are one of the applied me - chanical science branch t hat will be used t o i nvest i gat e, anal yse, and l ear n t he nat ur e and the behavior of luids. Fluid that will be explored could be a moving or stationary luid. Fluid Mechanics course intends to complement the ability of a student to be able to apply the basic laws of luid mechanics in practical engineering calculations of luid mechanics and be able to analyze the behavior of the luid and developing knowledge in the ield of luid mechanics. Syllabus: Fluid and its nature, luid statics, the relative balance, concept and basic equations of luid low, dynamic of low, the equation of luid motion Newton, Euler, Navierstokes, Basic Equation of Fluid Dynamics Continiuty, Energy and moment um, diment ional anal ysist and hydraulic similarity, ideal luid low, viscous low, viscous low: transition from laminar into turbulent low, fully developed turbulent low, low around submerged objects, general characteristic of outside low, concept and characteristic of layer in closed low, mea - surement and visualization of low, pressure measurement concept, low and capacity, low measurement devices Pit ot t ube, Vent uri, oriice, Nozzel, HWA, LDV, Flow visualization met hod. Requirement: - References: Munson, B.R., Fundamentals of Fluid 1. Mecha-nics 4th Ed, John Wiley Sons, Inc. 2000 Smit s, A. J. , A, Physical Int roduct ion t o 2. Fluid Mechanics, John Wiley Sons, Inc. 2000 Kumar, K.L., Engineering Fluid Mechanics, 3. Eurasia Publishing House Ltd., 2000 ENME600010 ENME610010 MECHANICAL DESIGN 4 SKS Course Obj ectives: Give the understanding about the application of engineering mechanic science and mat erial st rengt h in machine el ement . The st udent s have the basic competence to design the ma - chine element . Syllabus: Basic mechanical design review, design of joint : welding, solder, adhesive bonding, rivet, pin, bolt, nut, thread, axel, shaft, hub, roller lauch bearing, lubricat ion, wear and f rict ion, spring, break, ixed and unixed clutch, chain, belt, basic of gear, straight tilt bearing, Fi - nal Assignment : Design process consist of the understanding of purpose, load and calculation of machine element . Requirement: Mechanical Visualization and Modeling; Engi - neering Materials; Fundamental of Mechanical Design. U N D E R G R A D U A T E P R O G R A M 134 References: Hamrock, Fundamental of Machine 1. Element, Mc Graw-Hill, 2004 Shigley, Joseph Edward, Mechanical 2. Engineering Design, McGrawHill., 2003 Sularso, Dasar Perencanaan Pemilihan 3. Elemen Mesin, Pradnya Paramita, 1994 Hibbeler RC, Mechanics of Materials, 5th 4. ed., Prentice Hall, 2003. Riley, F William, Engineering Mechanics: 5. STATICS, John wiley sons ENME600011 ENME610011 MECHANICAL VIBRATION 2 SKS Course Obj ective: The st udent s have an underst anding of t he key points and concepts of the mechanical vibra - t ions of mechanical syst ems and have t he basic competence to analyze the vibration behavior and what parameters can be controlled in order to vibration damping. Syllabus: Fundament al of mechanical vibrat ion in me- chanical syst em, oscillat ory mot ion, f ree vibra- t ion, harmonic vibrat ion, t ransient vibrat ion, system with 2 degree of freedom and system witih multi degree freedom, lumped param - et ers syst em and cont inue syst em, Lagrange equat ion, random and non-linier vibrat ion. Re quir e me nt s: Engineering Mathematics, Kinemat ics and Dynamics Referencess: Meriam Kraige. Engineering Mechanics. 1. Vol- 2, Dynamics. Wiley New York.4th eds.1998. Holowenko. Dynamics of Machinery.John 2. Wiley.1995. William T.Thomson. Theory of Vibrat ion wit h 3. application. Prentice Hall India.1972. Beer Johnston.Mechanics for Engineer- 4. Dynamics.Mc-Graw-Hill.1976. ENME600012 ENME610012 METROLOGY AND MEASUREMENT 3 SKS Course Obj ective: Introduce students to modern experimental techniques for mechanical engineering; pro - vide exposure to and experience with a variety of sensors used in t hermo-mechanical syst ems, including sensors to measure temperature, pressure, displacement, velocity, acceleration and st rain; examine t he role of error and uncer- tainty in measurements and analysis; exposure to and experience in using commercial soft - ware f or dat a acquisit ion and analysis; discuss the role and limitations of spectral analysis of digital data; provide experience in working in a team in all aspects of the laboratory exercises, including set-up, data collection, analysis and report writing Syllabus: the basic concept of measurement and metrol - ogy, measurement t erminology and syst ems, indust rial measurement and syst em t erminol- ogy, temperature measurement, pressure and low measurement, force, stress, data acquisi - tion, motion measurement : position, velocity, vibration and acceleration, types of sensors transducer, transfer function, FFT and iltering, uncert aint y analysis, geomet ric and dimension calibrat ion, room diment ion, met rology lengt h measurement , surf ace t ext ure, roughnes and roundness, latness and straightness, angle measurement, introduction to CMM Requirement: - References: Busch, Ted, Fundament als of Dimensional 1. Metrology, 4th Ed, Delmar Publishers Fargo F.T., Curtis, M.A., Handbook of 2. Dimensional Measurement, 3rd Ed, Indust rial Press. Slocum, A., Precision Machine Design, SME 3. Press, 1992. Raldi Artono Koestoer, Pengukuran Teknik, 4. Departemen Teknik Mesin FTUI. ENME600013 ENME610013 HEAT AND MASS TRANSFER 4 SKS Course Obj ective: This course st udies about t he heat and mass t ransf er mechanism wit hin a volume cont rol system due to the temperature gradient, this course st rict ly relat ed t o t he basic t hermody- namics course. The purpose of this course is to develop the understading from the students about several heat and mass t ransf er mecha- nism between two systems if the temperature gradient ocure and t he st udent s able t o cal- cul at e t he heat t ransf er rat e. The st udent s capable to solve numbers of heat transfer probles using non-dimensional parameter. Syllabus: Fundament al of heat t ransf er, conduct ion heat transfer 1 dimentional and 2 dimentional, numerical analysis in conduct ion heat t rans- ferunsteady state, forced convection heat t ransver, f ree convect ion heat t ransf er, boiling and condensat ion, heat exchanger, radiat ion, f undament al of mass t ransf er, st eady st at e mol ecul di f f usi on, unst eady st at e mol ecul dif f usion, convect ion mass t ransf er, convec- t ion mass t ransf er correlat ion, mass t ransf er apparatus. U N D E R G R A D U A T E P R O G R A M 135 Requirement: Basic Thermodynamic Referencess: Frank P Incropere, David P De Witt, 1. Fundamental heat and mass transfer, 5th Ed., John Wiley Sons, 1996, New York Holman JP, Heat Transfer, 9th, Mc Graw 2. Hill, 2003. Koestoer, RA, Perpindahan Kalor untuk 3. Mahasiswa Teknik, Salemba Teknika, 2003. Welty R James, Wicks Charless, Wilson 4. Robert, Fundamentals of Momentum, Heat, and Mass Transfer, 3rd Ed. John Wiley Sons, 1996, New York Cengel, Yunus, Heat Transfer a Practical 5. Approach, 2nd Ed. Mc Graw Hill, 2003, Singapore. Kreith Frank, Bohn Mark, Principles of Heat 6. Transfer, 6th Ed. Brookscole, 2001, USA ENEE600017 ENEE610017 ELECTRICAL POWER ENGINEERING 2 SKS Refer to Page 179 ENME600015 ENME610015 SYSTEM CONTROL 4 SKS Course Obj ective: Syst em cont rol is one of t he sciences discussed about the method to control the value of pa - ramet ers wit hin a syst em. Paramet ers wit hin the system in this course are base on physic that could be position, velocity, rotation, pressure, acceleration low rate, tempera - t ure and ot her variables. This course aims f or st udent s t o underst and t he basics, analysis, and engi neer i ng desi gn and cont r ol syst em compensation techniques, and be able to choose a cont rol syst em cont roller is right f or a mechanical syst em. Syllabus: Introduction to system control, laplace trans - form, reverse laplace transform, solution for l inier ordinary dif f erent ial equat ion, mat h- emat i cal model i ng I-IV, cont r ol act i on, PID controller, electronic controller, pneumatic and hydraulic control, transient response analysis I and II, root place analysis, design of system control with root place analysis method, fre - quency response analysis, stability analysis, MATLAB laboratory activity, design of control system with response frequency method, dis - cret e t ime syst em and Z-Transf orm, PID con- trol and introduction to robust control, space condit ion analysis I-II, design of cont rol syst em within space condition, liapunove stability analysis and omptimum square control. Requirements: Physic 1mechanical and heat, Physic 2 electric, magnetic, wave and optic, engineering mat hemat ic. References: Ogata, Katsuhiko., Modern Control 1. Engineering, Prentice-Hall Int., Inc. 1997 Francis H, Raven., Automatic Control 2. Engineering. McGraw-Hill,1987. Cheng, David K., Analysis of Linear System, 3. Addison–Wesley P. C., Inc. ENME600016 ENME610016 FLUID SYSTEM 3 SKS Fluid system is applied science and engineering of basic luid science which studies the utiliza - tion of characteristic, behavior and properties of luid and its low behavior in various luid machines i.e. rotodynamics, reciprocating, hydraulic and pneumatic system. The course is intended to equip student to understand characteristic of turbo luid machines, hydrau - lic and pneumatic system and to be able to calculate and design a luid system. Syllabus: Basic Thermo luid in a Fluid System; Energy Transfer from Fluid to Rotor; Lagrangian and Eularian Approach; Energy Transfer Compo - nents; Impulse and Reaction; Turbo machinery Analysis with Flow; Operational Aspects of Rotodynamic Machinery; Hydraulic Similarities on Fluid Machinery; Reciprocating Machinery: Classiication, Main Component and Operating; Discharge and Coeficient Discharge; Work and Power; Basic Hydraulic Machines; Hydraulic Machines; Hydraulic Accumulator; Hydraulic Intensiier, Hydraulic Press; Hydraulic Crane; Hydraulic lift; Pneumatic System: Basic Laws, Pressure Drop Losses, Basic Control Valve of Pneumatic Circuit. Pr er equi si t e: Basi c Ther modynami cs, Basi c Fluid Mechanics References: Dixon, S.L, Fluid Mechanics and 5. Thermodynamics of Turbo machinery, 4th Edition, Pergamon Press, 2005 Esposito, A., Fluid Power with Application, 6. 5th Edition, Prentice Hall, 2003 Mobley, R.K, Fluid Power Dynamics, 7. Newnes Butterworth-Heinemann, 1999 Giles, R.V, Fluid Mechanics and Hydraulics, 8. 2nd Edition Schaum’s Outline Series, Mc- Graw-Hill, 1994 ENME600017 ENME610017 MAINTENANCE AND CONDITION MONITORING 3 SKS Course Obj ective: This course gives t he underst anding and t he U N D E R G R A D U A T E P R O G R A M 136 ability to analyze a system and design a system for maintenance and its procedure to improve the eficiency and reliability within a system. To give the understanding and competence to develop and implementation of vibration monit oring and engine condit ion so t hat t he mechanical system reach the optimum per - f ormance. Syllabus: Quality, Reliability and Maintainability, main - t enance syst em st r at egy, f ai l ur e anal ysi s, design of maint enance syst em and scheduling, maintenance system organization, condition monit oring and condit ion based maint enance, computer based maintenance system, total productive maintenance TPM and its imple - ment at ion, t he ef f ect iveness measurement of total productive maintenance, reliability based maintenance system, planning;measurement and standardization of maintenance work, qualit y of maint enance syst em, basic t heory of vibrat ion and engine condit ion, basic of engine condit ion monit oring, vibrat ion monit oring de- vice in several mechanical syst ems and engine condit ion analysis. Requirements: Mechanical Vibration References: Niebel, B.W., Engineering Maintenance 1. Management, Marcel Dekker, Inc. 1994 Higgin, L.R., Maintenance Planning and 2. control, Mc Graw Hill Book Company, 1998 Mishra, R.C., and K. Pathak, Maintenance 3. Engineering and Management, PHI, 2002 Bruel Kjaer. Handbook of Vibration 4. Condition Monitoring ENME600018 ENME610018 ENERGY CONVERSION AND CONSERVASION 4 SKS Course Obj ectives: This course discusses about t he energy resourc- es, type and classiication of energy, energy conversion, energy consumption, basic concept of energy conversion, power resources and classiication of energy conversion enginess. The st udent s underst and t he energy source, type of energy conversion engine, conversion and conservasion of energy syst em, and also ca- pable to perform a basic calculation of energy conversion engine performance and critical considerat ion of energy conversion. Syllabus: Deinition of energy and energy resources, type and energy classiication, law and equation in energy conversion, energy proile resources, reserves and t he world’s and Indonesia’s energy needs, basic concept of energy conversion system, power resources and classiication of energy conversion engine, f uel in energy conversion, renewable energy, non-renewable energy, classiication of combustion engine, calculation for internal combustion engine per - formance, steam power plant, luid machinery, cooling engine classiication, thermodynamic cycl e of cool i ng engi ne, ener gy conver si on met hod i n vehi cl e, i ndust r y and bui l di ng, laborat ory act ivit y. Requirements: Basic Thermodynamics, Basic Fluid Mechanics, Heat and Mass Transfer Referencess: Kreith, F, Goswami, DY, Energy Conversion 1. Mechanical Engineering, CNC Press, 2007 Kreith, F, Goswami, DY, Energy management 2. and Conservation Handbook, CNC Press, 2007 Patrick, D.R., et.al, Energy Conservation 3. Guidebook, 2nd, 2007 Dincer, I., Rosen, Thermal Energy Storage: 4. Systems and Applications, John Wiley, 2002 Panduan Praktikum Prestasi Mesin Konversi 5. energi, Departemen Teknik Mesin versi 2003. Depok 2003. ENME600019 ENME610019 MECHATRONICS 4 SKS Course Obj ective: This course provides the ability to design electrical-mechanical that properly meet the needs of a process speciication and a design t hat given in a laborat ory scale wit h t he me- chani cal , el ect r i cal t heor y and aut omat i on cont rol. Syllabus: Mechatronics concept and theory, electronics analog system, electronis analog components, elect ronics digit al syst em, analog and digit al i nt er f ace, sensor s and act uat or s el ect r i c motor, pneumatic, hydraulic, principles of microprocessor and microcontroller, micro - controller based control system theory, C C ++ programming for electrical-mechanical for control, programmable logic controller PLC, Laborat ory act ivit y. Re qui r e me nt s: Physic 1Mechanical and Heat, Physics electrical, magneticm wave and optic References: Smaili A. dan Mrad F., Applied Mechatronics, 1. Oxford University Press, 2007 Sabri Cetinkunt, Mechatronics, Wiley, 2. 2006 Histand, M.B., Alciatore, D.G., 3. U N D E R G R A D U A T E P R O G R A M 137 Introduction to Mechatronics and Measurement System, McGraw-Hill, Singapore, 1999. Fraser, C. dan Milne, J, Electromechanical 4. Engineering, An Int roduct ion, IEEE Press, McGraw-Hill, New York, 1994. Gandjar K, Hand-out Mekatronika, DTMUI, 5. 2007 ENME600020 ENME610020 DESIGN ASSIGNMENT 4 SKS Course Obj ective: The st udent s have t he abi l i t y t o desi gn a mechanical system or product by using the knowledge and skills that previously obtained. The students capable to work in a team, com - municate, report and defend and presenting the inal project. Syllabus: Fundamental of problems and mechanical design process, teamwork in design, design process planning, understand the problem and develop engineering speciications, concept generation, evaluation and selection, product design phase, product generation, evalua - tion and performance, product evaluation or mechani cal syst em f or cost , manuf act ur e, assembling and ot hers. Requir ement s: Engineering Materials, Me - chanical Design, Material Selection and Manu - f act uring Process. References: David G.Ullman. The mechanical design 1. process. Mc.Graw Hill.1997. George Dieter. Engineering Design: A 2. Material and Processing Approach.2000. G.Pahl and W.Beitz. Engineering Design: 3. A Systematic Approach. Springer Verlag.1991. ENME600025 ENME610025 CAPITA SELECTA 2 SKS Course Obj ective: Able to understand industrial development and its problems. Syllabus: Special topics in industries which are not cov - ered in ot her courses. Requirement: - References: - ENME600022 ENME610022 INTERNSHIP 2 SKS Course Obj ective: The course is intended to provide opportunity for gaining experience in industries and apply - ing mechanical engineering knowledge. Able t o perform management tasks and engineering technique according to ield of interest. Syllabus: Management and Engineering according to the ield of interest. Presentation of on the job training results and report. Requirement: Passed 95 SKS and GPA 2.00 ENME600021 ENME610021 TECHNOPRENEURSHIP 2 SKS Course Obj ective: To give insight in increasing st udent ’ s abilit y who has not only high comptency in Mechanical Engineering but also enterpreneurship spirit, hence achieving excellence among t heir com- petitors and also dare to initiate new ideas as enterpreneurs. The student is expected to be able to develop commercial business for him - self and ot hers in order t o be excellent and has broader choices in t eh real world. Syllabi: Business: Enterpreneurship; Business and Ethics; Introduction on Business Fields. Man - agement: Corporate Leadership; Innovative Product-based Company, Innovative Product- based Busi ness Admi ni st r at i on. Fi nanci ng: Introduction on Capital and Financing, Practical Accounting for Non-Accountant; Financing Man - agement ; Int roduct ion on Pricing Technique; Bankable- Business Proposal Development. Syllabus: Basic Mechanical Design; Manufac - ture and Material Selection Processes; Design Assignment . References: Richard C. Dorf, Thomas H. Byers, 1. Tech- nol ogy Vent ur es, f r om i dea t o ent er pr i se , McGraw Hill, 2008 Robert G. Cooper, 2. Wi nni ng at New Pr od- uct s , l at est edit ion, Basic Books-Perseus Group, 2003 Arman H.N., Bustanul A.N., M. Suef, 3. “ Mem- bangun Spi r i t Teknopr eneur shi p ” , penerbit Andi, Yogyakarta, 2007 Arman H.N., Indung S., Lantip T., 4. “ Mana- j emen Pemasar an unt uk Engi neer i ng ” , penerbit Andi, Yogyakarta, 2006 ENME 6 0 0023 ENME 6 1 0023 FINAL PROJECT 4 SKS Learning Obj ectives: Students are able to 1 prepare a research pro - posal based on good understanding of research methodology, 2 prepare a well-written research U N D E R G R A D U A T E P R O G R A M 138 report in Bahasa Indonesia, and 3 present and def end research result s. Syllabus : Synthesizing various lectures taken by st udent s t o design or t o sol ve engineering problems. Preparing a written report of the synt hesis. Prerequisites : Passing 128 credits with GPA = 2,00 and without grade of E ENME 6 0 0024 ENME 6 1 0024 ENGINEERING ETHICS 2 SKS Learning Obj ectives: Syllabus: Pre-requisites: Textbooks: ELECTIVE COURSE FROM MASTER PROGRAM ENERGY CONVERSION STREAM ENME800114 COMBUSTION ENGINEERING 4 SKS Refer to Page 415 ENME800115 INTERNAL COMBUSTION ENGINE 4 SKS Refer to Page 415 ENME800116 APPLIED FLOW MEASUREMENT AND VISUALIZATION 4 SKS Refer to Page 415 ENME80117 CFD APPLICATIONS 4 SKS Refer to Page ENME800111 HEAT AND MASS TRANSFER ENGINEERING 4 SKS Refer to Page 413 ENME800112 AERODYNAMIC ENGINEERING 4 SKS Refer to Page 414 ENME800113 POWER GENERATION 4 SKS Refer to Page 414 BUILDING UTILITY SYSTEM AND FIRE SAFETY STREAM ENME800202 BUILDING MECHANICAL AND ELECTRICAL SYSTEM 4 SKS Refer to Page 417 ENME800214 REFRIGERATION ENGINEERING 4 SKS Refer to Page 418 ENME800215 FIRE SAFETY AND PROTECTION ENGINEERING 4 SKS Refer to Page 419 ENME800211 VENTILATION AND AIR CONDITIONING SYSTEM 4 SKS Refer to Page 417 ENME800212 BUILDING UTILITY SYSTEM DESIGN 4 SKS Refer to Page 418 ENME800213 ENERGY AUDIT 4 SKS Refer to Page 418 DESIGN AND PRODUCT MANUFACT URING STREAM ENME800314 MICROFABRICATION AND PRECISION MANU- FACTURING 4 SKS Refer to Page 421 ENME800315 DYNAMICS OF MECHANICAL SYSTEM 4 SKS Refer to Page 422 ENME800316 COMPOSITE PRODUCT DEVELOPMENT 4 SKS Refer to Page 422 ENME800317 FINITE ELEMENT AND MULTIPHYSICS 4 SKS Refer to Page 422 ENME800311 DESIGN FOR MANUFACTURE AND ASSEMBLY 4 SKS Refer to Page 420 U N D E R G R A D U A T E P R O G R A M 139 ENME800312 MECHANICAL FAILURE 4 SKS Refer to Page 420 ENMEB00313 NOISE AND VIBRATION Refer to Page 421 AUTOMATION AND MANUFACTURING SYSTEM STREAM ENME800413 SYSTEM MACHINE VISION 4 SKS Refer to Page 423 ENME800414 QUALITY AND PRODUCTION MANAGEMENT SYSTEM 4 SKS Refer to Page 421 ENME800411 CAD CAM 4 SKS Refer to Page 423 ENME800412 MANUFACTURING PERFORMANCE ASSESMENT 4 SKS Refer to Page 423 ENME800402 AUTOMATION AND ROBOTICS 4 SKS Refer to Page 428 VEHICLE ENGINEERING AND HEAVY EQUIPMENT STREAM ENME800513 MODERN VEHICLE TECHNOLOGY 4 SKS Refer to Page 425 ENME800514 OIL AND GAS DRILLING EQUIPMENT 4 SKS Refer to Page 426 ENME800511 RAILWAY VEHICLE ENGINEERING 4 SKS Refer to Page 424 ENME800512 HANDLING AND CONSTRUCTION EQUIPMENT 4 SKS Refer to Page 424 U N D E R G R A D U A T E P R O G R A M 140 4. 4. UNDERGRADUATE PROGRAM IN NAVAL ARCHITECTURE AND MARINE ENGINEERING Program Speciication