MS ME Curriculum

Program Background

The Master of Science (MS) in Mechanical Engineering program is a research-oriented degree designed for the professional development of mechanical engineers, particularly those with careers in R&D or in academe. The degree also provides ample preparation for further studies at the doctoral level. The MS program requires mastering of a field of specialization through coursework and a thesis demonstrating original thought and contributing to knowledge in a field of specialization.
This degree is a thesis based program designed for the professional development of engineers with two (2) main areas of concentration namely; Mechatronics and Energy & Sustainability.

Master of Science in Mechanical Engineering (MSME)

Course Requirements
Term 1 2 3 4 5 6
Advanced Mathematics 6 units 3 3
Major subjects 15 units 6 6 3
Electives 6 units 3 3
Methods of Research 3 units 3
Comprehensive Exam 0 unit 0
Thesis 6 units 6 0 0
Orientation for Non-DLSU graduates (1 unit) (1)
Total 36(1)units 9(1) 12 9 6 0

Dissertaion Writing: MEN851M, MEN852M,…,MEN859M
Form: EN-19

Application for Dissertation Defense
Form: EN-18

Publication Requirement

One (1) publication in a refereed journal

Advanced Mathematics (MSME)

Course Code Course Title Brief Description
COE5310 Advanced Mathematical Methods Review of linear algebra and linear differential equation, existence and uniqueness, autonomous systems, phase portraits, nonlinear system, linearization, stability, perturbation, chaos and bifurcation.
COE5320 Numerical Methods with Computer Programming and Application Matrix computations, roots of linear and non-linear system, interpolation, numerical integration and differentiation, predictor connector, and Runge Kutta Methods, finite difference methods and introduction to finite element methods.
COE5100 Statistical Analysis and Design Basic Research Methods; Analysis of variance and covariance; Experimental Design; Advanced Regression Analysis; Non-Parametric Test

MS ME Major Courses

Course Code Course Title Brief Description
MEE575M Finite Element Analysis This course applies Finite Element Analysis (FEA) in the context of research and development. The course will provide an overview of the software tool ANSYS Static Structural and ANSYS Steady-State Thermal. The students shall be exposed to potential areas of research and development in FEA using ANSYS as a tool.
MEE572M Composite Materials This is an introductory course in nanocomposites that would focus on materials, manufacturing methods, characterization, and applications. It will include different types of nanomaterials that are commonly used in modifying the material matrix composites. The major thrust would be the challenges in manufacturing low-cost real-life components in industrial applications, commercial success stories, its impact on current established material market, and future directions. The course will consist of lecture notes and assessment is thru assigned problem sets and a final exam.
MEE620M Mechanical System Design with Optimization Technique This subject covers various optimization concepts and methodologies applied to the design of mechanical systems. Techniques are illustrated using case studies through a variety of learning strategies, including lectures on theoretical foundations and problem-based learning through realistic case studies solved with appropriate computer software. Students may also be asked to attend alternative classes, do independent study or go on field trips, where appropriate.
MEE825M Introduction to Nanotechnology for ME Nanotechnology is an emerging field of applied science that engages almost every technical discipline in biology, chemistry, physics, and engineering – in the study and application of extremely tiny materials with particle sizes ranging from ~1-100 nm. This course will cover the fundamentals of nanoscience and nanotechnology from historical development, concepts and principles to nanomaterial manufacturing and property characterization, and the application of nanotechnology in food science, agriculture, environment, and other applications.
MEE626M Computational Fluid Dynamics in Mechanical Engineering This subject covers various computational fluid dynamics concepts and methodologies applied to the design and analysis of mechanical systems. Techniques are illustrated using case studies through a variety of learning strategies, including lectures on theoretical foundations and problem-based learning through realistic case studies solved with appropriate computer software. Students may also be asked to attend alternative classes related to the topic.
MEE570M Advanced Thermodynamics This subject covers reacting mixtures and combustion, chemical and phase equilibrium as well as design of thermal systems. In thermal system design, the two first chapters are on engineering and selecting workable designs. This is followed by engineering economics to forecast system costs in terms of future costs or translate future costs to present costs. It also introduces equation fitting to model the behavior of subsystem components based on data from a catalog. The system modeling is also discussed wherein the functional flow diagram is shown indicating mass transfer and work inputs/outputs from black box type unit components. It also teaches how to simulate the model which helps in sensitivity studies before or after optimization. Mathematical optimization methods such as Lagrange Multipliers, Search Methods and Linear Programming among others are presented.
MEE571M Advanced Heat Transfer The course deals mainly with the design of thermal systems which includes project, modeling, simulation and optimization. The system simulation has become an accepted tool for energy analysis of power generation, air- conditioning, refrigeration and other thermal processing plants. Simulation is often used in the design or development stage to evaluate energy requirements of the proposed system or to explore potential savings in first cost. The acceptance of optimization techniques helps the engineers to choose the most economical design.
MEE625M Experimental Techniques in Combustion Engineering This course deals with the experimental techniques that are employed when conducting research in combustion. Methods on how to use commonly used equipment and sensors are discussed.
MEE627M Foundation of Advanced Fluid Mechanics for ME This subject covers a survey of principal concepts and methods of fluid dynamics which include mass conservation, momentum and energy equations for continua; Navier-Stokes equation for viscous flows; Similarity and dimensional analysis; boundary layers and separation; circulation and vorticity theorems; potential flow and introduction to turbulence including identification of lift and drag coefficients.
MEE633M Energy Engineering This course introduces the concept of energy engineering through various case studies and specialized applications. The course walks the students through the process of performing such analysis, starting from sourcing of data, to developing the numerical model, to interpreting results, and to writing a research article report.
MEE635M Energy Systems Modelling and Design This module equips students with an appreciation of energy systems modeling and the foundational knowledge and skills needed to pursue research and independently enhance themselves in the said field. The discussions emphasize the practical application of theoretical tools to address real world challenges. Whenever possible, it discusses studies and projects that were actually applied to technology development, planning and design and policy analysis and development. Students are required to do an energy systems modeling project at the end of the course.
MEE813M Special Topics in Thermo Fluid Engineering This course covers three (3) major subjects such as Thermodynamics, Fluid Mechanics and Heat Transfer. In Thermodynamics, the topics include the derivation of mass conservation, momentum and energy equations as well as applications of the 1st Law of Thermodynamics at steady-state and transient conditions, 2nd Law of Thermodynamics, Exergy, Power Cycles and Mixtures. Fluid Mechanics include single-phase flow fundamentals, incompressible viscous flow and compressible flow. Heat Transfer topics include conduction, forced and free convection, thermal radiation, two-phase flow fundamentals, boiling, condensation, and other applications such as heat exchangers, fundamentals of turbomachines and simulation of thermofluid systems.
MEE814M Special Topics in Energy and Environment This course deals with the introduction to machine learning and its application on sustainable development. This course emphasizes on current machine learning techniques such as Rough Set-based Machine Learning (RSML), logical analysis of data (LAD), and data envelopment analysis (DEA).
MEE614M Control Engineering This course provides introduction to the basic concepts in feedback control systems with emphasis on mechanical and electro-mechanical systems.
MEE573M Computer Aided Design and Manufacturing This course deals with the different aspects of CAD/CAM. It focuses on CAD and CAM software together with numerical control programming for implementation. It features exercises utilizing a CNC milling machine together with two softwares namely: WPLM and Spectracad. It will also feature an introduction to 3d printing technology.
MEE601M Mechatronic Design This subject is about the principles in the integration of mechanical engineering with electrical, electronics, and computer engineering.
MEE611M Instrumentation and Precision Engineering This course deals with the different aspects of instrumentation. It focuses on the different physical quantities for instrumentation like temperature, pressure, level, flow, and gas analysis. It features hands-on exercises utilizing a data acquisition system and sensors which enhances the understanding of the principles of instrumentation.
MEE612M Industrial Automation and Control This course deals with the different aspects of industrial automation. It focuses on industrial sensors, pneumatic control and industrial robots. It features hands-on exercises utilizing a Sensor Technology Kit, an ER5 Robotic Arm, and Pneumatic Kits which enhances the understanding of the principles of industrial automation.
MEE811M Special Topics in Mechatronics This course discusses some the emerging technologies in the subject. Conference and journal papers are the main sources of points for discussion. Automation projects can also be assigned to demonstrate familiarity with a particularly new technology.
MEE602M Robotics and Mechatronics for ME This course covers the fundamental principles in Robotics including image analysis and computational intelligence.
MEE715M Machine Vision and Image Processing for ME The course focuses on image processing theory as well as the application of imaging in the design and implementation of systems for machine vision in the real world. Topics include perception of 3D scene structure from stereo, motion, and shading; image filtering, smoothing, edge detection; segmentation and grouping; texture analysis; learning, recognition, and search; tracking and motion estimation. Also, Object detection using machine learning and deep learning will be discussed.

OTHERS

Course Code Course Title Brief Description
COE5000 Engineering Orientation The course includes topics on the DLSU history, mission statement, organizational structure, key officers/offices; the Brothers of the Christian Schools, the life and writings of St. John Baptist de la Salle; Lasallian core values and professional ethics.
COE996M Oral Comprehensive Exam
COE5200 Methods of Research A study of the fundamentals of research designs, analysis and interpretations of data, project feasibility studies, and qualitative research techniques
COE571M Techpreneurship This course takes the participant through entrepreneurship in technology ventures, which is about commercializing technology ideas into viable enterprises. It is about training techies, scientists and researchers in the skills and attitudes of entrepreneurs, about empowering them to realize the opportunities and commercial values arising from their ideas, technologies, technology applications or products. The course examines the development of ideas and how these are translated into opportunities and eventually businesses; it challenges the students to go through the process of writing a business plan, which will be their final output in this course.