Faculty Of Mechanical Engineering

Undergraduate

Home > Faculty Of Mechanical Engineering > Undergraduate

Undergraduate | Graduate | Faculty Profiles | Labs

FME offers a well-structured 4-year BS degree program in mechanical engineering. As a cross-disciplinary program, it gives its students a sound foundation of engineering principles and promotes communication and practical skills that are the need of the present and future knowledge driven industry. Classroom theory is reinforced through extensive laboratory work, problem-based learning, and complex engineering problem. FME is focused on design and manufacturing, thermo-fluids as well as system dynamics and control, thus, enabling students to pursue their final year design projects as per their future career aspirations.

OUTCOME BASED EDUCATION (OBE)

FME has adopted student centric OBE system that leads to enhanced learning outcomes for students and relies heavily on continuous quality improvement. Moreover, curriculum is continuously revised keeping in view the country’s industrial needs as well as adopting best international practices. Our students are thus equipped with twelve key graduate attributes or Program Learning Outcomes. These attributes or learning outcomes groom students with sound intellectual, theoretical and practical experiences that qualify them to address a variety of societal needs ethically. Thus, enabling graduating students to step with confidence into industry, research organizations or in the domain of higher education. FME firmly believes the education we provide will enable our graduates to stand out from the crowd and has the potential to rise and shine.

Program Educational Objectives (PEOs)

PEO_1. Graduates practicing in a variety of Mechanical engineering and allied disciplines.

PEO_2. Graduates performing in a responsible, professional and ethical manner as an individual and a part of team.

PEO_3. Graduates advancing their knowledge and excelling in the chosen domain.

Program Learning Outcomes (PLOs)

The program learning outcomes are given below.

1. Engineering Knowledge:

An ability to apply knowledge of mathematics, science, engineering fundamentals and an engineering specialization to the solution of complex mechanical engineering problems.

2. Problem Analysis:

An ability to identify, formulate, research literature and analyze complex mechanical engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences and engineering sciences.

3. Design/Development of Solutions:

An ability to design solutions for complex mechanical engineering problems and design systems, components or processes that meet specified needs with appropriate consideration for public health and safety, cultural, societal, and environmental considerations.

4. Investigation:

An ability to investigate complex mechanical engineering problems in a methodical way including literature survey, design and conduct of experiments, analysis and interpretation of experimental data and synthesis of information to derive valid conclusions.

5. Modern Tool Usage:

An ability to crate, select and apply appropriate techniques, resources and modern engineering and IT tools, including prediction and modelling, to complex mechanical engineering activities, with an understanding of limitations.

6. The Engineer and Society:

An ability to apply reasoning informed by contextual knowledge to assess societal, health, safety, legal and cultural issues and the consequent responsibilities relevant to professional engineering practice and solution to complex mechanical engineering problems.

7. Environment and Sustainability:

An ability to understand the impact of professional engineering solutions in societal and environmental contexts and demonstrate knowledge of and need for sustainable development.

8. Ethics:

Apply ethical principles and commit to professional ethics and responsibilities and norms of engineering practice.

9. Individual and Teamwork:

An ability to work effectively as an individual or in a team, on multifaceted and/or multidisciplinary settings.

10. Communication:

An ability to communicate effectively, orally as well as in writing, on complex mechanical engineering activities with the engineering community and with society at large, such as being able to comprehend and write effective report and design documentation, make effective presentations and give and receive clear instructions.

11. Project Management:

An ability to demonstrate management skills and apply engineering principles to one’s own work, as a member and/or leader in a team, to manage projects in a multidisciplinary environment.

12. Life long Learning:

An ability to recognize importance of and pursue lifelong learning in the broader context of innovation and technological developments.

Degree Requirement

A student majoring in Mechanical Engineering must complete the following courses:

Complete Degree Plan

(A) General Education Requirements (55 Credit Hours)

Course Titles	Course Code	Credit Hour
Computer Science & Engineering	CS101, CS101L, CS112, CS112L	7
Humanities	HM101, HM102, HM211, HM321, HM322	15
Basic Engineering	CH101, CH161, IF101, IF102, MS291, ME204, MM101, MM141	13
Mathematics	MT101, MT102, MT201, ES111, ES341/CS342	15
Sciences	PH101, PH101L	4

(B) Core Requirements (66 Credit Hours)

Course Titles	Course Code	Credit Hour
Circuits and Electronic Devices Electronics and Instrumentation Lab	ME203 ME243	4
Electrical Machines and Drives Mechatronics Lab	ME403 ME447	4
Measurement and Instrumentation	ME202	2
Engineering Mechanics (Statics, Dynamics)	ME211, ME212	5
Mechanics of Solids	ME213, ME314	5
Thermodynamics	ME231, ME232	6
Fluid Mechanics	ME321, ME322	6
Theory of Machines	ME313	3
Heat Transfer	ME333	3
Design of Machine Elements	ME363, ME364	4
Manufacturing Processes	ME251	2
Mechanical Vibrations	ME315	3
Design Projects	ME481, ME482	6
System Dynamics and Control	ME464	3
Finite Element Analysis	ME467	2
Computer Aided Engineering	ME316	2
Mechanical Engg. Lab. Courses	ME244, ME245, ME348, ME346 ME347, ME446	5

(C) Technical Electives* (6 Credit Hours)

Design and Manufacturing

Course Titles	Course Code	Credit Hour
CAD/CAM	ME418	3
Introduction to Automobile Engg.	ME465	3
Introduction to Finite Element Methods	ME466	3
Fundamentals of Composite Materials	ME419	3

Thermo Fluids

Course Titles	Course Code	Credit Hour
Introduction to Computational Fluid Dynamics	ME423	3
Gas Dynamics	ME424	3
Combustion	ME434	3
Refrigeration & Air-conditioning	ME439	3
Power Plants	ME471	3
Gas Turbine	ME473	3
Internal Combustion Engines	ME474	3
Energy Management & Conservation	ME475	3
Thermo-Fluid Systems Design	ME425	3

System Dynamics and Control

Course Titles	Course Code	Credit Hour
Robotics	ME452	3
Design of Experiments in Mechanical Engineering	ME467	3
Industrial Automation	ME493	3
Flight Dynamics and Control	Me494	3

(D) Management Electives (At least 6 Credit Hours)

Course Titles	Course Code	Credit Hour
Operation Management	MS492	3
Industrial Safety	MS493	3
Total Quality Management	MS494	3
Maintenance Management	MS495	3
Technology Management	MS426	3
Industrial Management	ME449	3
Project Management	ME496	3
Supply Chain Management	MS491	3
Accounting and Finance	MS447	3
Entrepreneurship and Marketing	MS434	3
Macro & International Economics	MS448	3

(E) Summer Internship (Pass/Fail Grade; NIL Credit)

Every student is required to participate in a compulsory training programme during the summer of Junior Year and submit a formal written report.

(F) Total Requirements (136 Credit Hours)

For the B.S. degree in Mechanical Engineering, a student has to complete 136 credit hours.

Courses Catalogue

Faculty of Mechanical Engineering

Code	Name	Lecture Hours	Lab Hours	Credit Hours	Pre-reqs	Co-reqs
ME101	Engineering Workshop Practice	0	3	1	none	none
ME102	Engineering Graphics	1	3	2	none	none
ME202	Measurement and Instrumentation	1	0	1	none	none
ME203	Circuits and Electronic Devices	3	0	3	none	none
ME211	Statics	3	0	3	PH101	none
ME212	Dynamics	3	0	3	ME211	none
ME213	Mechanics of Solids I	3	0	3	ME211	none
ME231	Thermodynamics I	3	0	3	MT101	none
ME232	Thermodynamics II	3	0	3	ME231	none
ME243	Electronics and Instrumentation Lab	0	3	1	none	ME202, ME203
ME244	Statics and Dynamics Lab	0	3	1	ME211	ME212
ME261	Design of Machine Element I	3	0	3	ME101	none
ME313	Theory of Machines	3	0	3	ME212	none
ME314	Mechanics of Solid II	3	0	3	ME213.	none
ME315	Mechanical Vibrations	3	0	3	MT201, ME212	none
ME321	Fluid Mechanics I	3	0	3	MT101, ME212	none
ME322	Fluid Mechanics II	3	0	3	ME321	none
ME333	Heat Transfer	3	0	3	ME231, ME321	none
ME342	Mechanics of Solid and Manufacturing Processes Lab	0	3	1	ME213	ME353
ME346	Thermo-Fluid Lab I	0	3	1	ME232	ME321
ME347	Thermo-Fluid Lab II	0	3	1	none	ME322, ME333
ME353	Manufacturing Prcesses	3	0	3	ME213	none
ME364	Design of Machine Element II	2	0	2	ME261	none
ME403	Electrical Machines and Drives	3	0	3	ME203	none
ME416	Stress Analysis	3	0	3	ME213, ME314	none
ME418	CAD/CAM	2	3	3	ME101, CSE101	none
ME419	Fundamentals of Composite Materials	3	0	3	none	none
ME423	Introduction to Computational Fluid Dynamics	3	0	3	ME333, ME422	none
ME424	Gas Dynamics	3	0	3	ME322, ME321	none
ME425	Thermo-Fluids Systems Design	3	0	3	none	none
ME434	Combustion	3	0	3	ME332, ME333	none
ME439	Refrigeration & Air-conditioning	3	0	3	ME322, ME333	none
ME446	Mechanical Vibrations and System Dynamics & Control Lab	0	3	1	ME315, MT201	ME464
ME447	Mechatronics Lab	0	3	1	ME203	ME403
ME452	Robotics	3	0	3	ME212, ME313	none
ME453	Additive Manufacturing	3	0	3	none	none
ME454	Micro and Nano Fabrication	3	0	3	none	none
ME464	System Dynamics and Control	3	0	3	MT201	none
ME465	Introduction to Automobile Engineering	3	0	3	none	none
ME466	Introduction to Finite Element Methods	2	3	3	none	none
ME467	Finite Element Analysis	2	0	2	none	none
ME469	Design of Experiments in Mechanical Engineering	3	0	3	none	none
ME471	Power Plants	3	0	3	ME321, ME322, ME333	none
ME473	Gas Turbines	3	0	3	ME321, ME332	none
ME474	Internal Combustion Engines	3	0	3	ME321, ME332.	none
ME475	Energy Management & Conservation	3	0	3	none	none
ME493	Industrial Automation	3	0	3	none	none
ME494	Flight Dynamics and Control	3	0	3	none	none