MECH 200: CLASSICAL THERMODYNAMICS
Boğaziçi University
ME 263: Thermodynamics I
The thermodynamic system and properties, thermodynamic processes; work and heat interactions. The First Law for systems and for flow processes; the Second Law and entropy. Irreversibility and availability.
MECH 340: INDUSTRIAL PROCESS LAB
Auburn University
MECH 3210: Design and Manufacturing Lab
Manufacturing safety lab for introduction to manufacturing processes associated with cutting, forming, and joining of metals and other materials.
MECH 343: MODELING OF DYNAMIC SYSTEMS
Universidad Carlos III de Madrid
14026: Control Engineering I
With this subject it is tried that the student acquires basic knowledge that allow him to analyze and to control dynamic systems of continuous time. The study of the behavior of the systems will be realised by means of the classic theory of control of linear systems, using the representation of a system by means of input-output relations.
MECH 343: MODELING OF DYNAMIC SYSTEMS
University of Queensland: Australia
MECH 2210: Intermediate Mechanical & Space Dynamics
This course develops further the study of engineering dynamics taken as part of ENGG1400 (or earlier versions of ENGG1400). The main focus is towards the application of dynamic principles to engineering mechanisms and machines, with some more advanced topics in dynamic analysis and orbital mechanics. It is intended to develop particularly an understanding of dynamic forces within machines and of their significance with respect to the equipment they drive, are driven by, or are mounted on.
MECH 343: MODELING OF DYNAMIC SYSTEMS
Auburn University
MECH 3140: System Dynamics and Controls
Laplace Transform and Transfer Functions; 2 Modeling Mechanical Systems; Modeling Electrical Systems; Linearization; First Order Time Response; First Order Frequency Response; Second Order Time Response; Second Order Frequency Response; Higher Order Systems; Block Diagrams and PD Control; Control Design Rules; Integral Control and Root Locus, Lead/Lag
MECH 343: MODELING OF DYNAMIC SYSTEMS
Monash University
MEC3457: Systems and Control
In classical control theory, we use variety of techniques for analyzing transfer function models. In this computer lab, we introduce root locus in the MATLAB environment. While root locus plots can be manually drawn by hand, MATLAB has the ability to generate it in a single function. The major advantage, aside from time savings, is that we can interact with the generated plots to obtain the information we need for system tuning. Plotting root locus plot in the MATLAB environment is a very simple process, it is important to understand how these plots are generated. The purpose of this computer laboratory is to not only introduce the root locus plot functions, but also to help you understand the process of generating these plots and read the plots so that you can properly utilize them in system tuning and gauging system response performance.
MECH 343: MODELING OF DYNAMIC SYSTEMS
University of Melbourne
MCEN30020: Systems Modelling and Analysis
This subject will cover the modelling of a range of physical systems across multiple domains as ordinary differential equations, and then introduce the mathematical techniques to analyse their open loop behaviour.
Topics include:
- Development of low order models of a range of electrical, thermal, mechanical, pneumatic and hydraulic dynamic systems
- Different representations of these systems (time and, frequency domains) and transformations between them (Laplace, Fourier and Z-transforms)
- Representations of systems – transfer functions, Bode plots, state space, block diagrams, etc
- Identification of linear time invariant systems (least squares identification)
- Relation to time domain properties of open loop responses – stability, oscillations, etc.
MATLAB will be used throughout the course to complement the presented concepts.
MECH 371: FLUID MECHANICS I
The University of Auckland
MECHENG 211: Thermofluids
To understand and be able to apply the basic principles of thermodynamics, fluid mechanics, and heat transfer.
MECH 371: FLUID MECHANICS I
Universidad Carlos III de Madrid
14196: Engineering Fluid Mechanics
The objective of this course is to provide the student a basic understanding of Fluid Mechanics: Mass Conservation Law, Momentum Conservations Law and Energy Conservation Law.
Knowledge mastered in this course:
- Identify the fluid domain and understand the interaction with its surroundings.
- Apply properly the above mentioned conservation laws to obtain forces, moments, power and heat exchange.
- Determine the dominant terms in the conservation equations
- Determine the adequate methodology to obtain the required variables in an engineering problem (calculus, experiments, etc.)
- Present results in a rational manner, in terms of the relevant parameters.
- Comprehension of basic terminology to understand technical documentation and specific literature.
MECH 371: FLUID MECHANICS I
The University of Melbourne
ENGR30002: Fluid Mechanics
Topics covered include - Fluid statics, manometry, derivation of the continuity equation, mechanical energy balance, friction losses in a straight pipe, Newton’s law of viscosity, treatment of pipe roughness, valves and fittings; simple pipe network problems; principles of open channel flow; compressible flow, propagation of pressure wave, isothermal and adiabatic flow equations in a pipe, choked flow. Pumps – pump characteristics, centrifugal pumps, derivation of theoretical head, head losses leading to the actual pump head curve, calculating system head, determining the operating point of a pumping system, throttling for flow control, cavitation and NPSH, affinity laws and pump scale-up, introduction to positive displacement pumps; stirred tanks- radial, axial and tangential flow, type of agitators, vortex elimination, the standard tank configuration, power number and power curve, dynamic and geometric similarity in scale-up; Newtonian and non-Newtonian fluids, Multi-dimensional fluid flow-momentum flux, development of multi-dimensional equations of continuity and for momentum transfer, Navier-Stokes equations, application to tube flow, Couette flow, Stokes flow.
MECH 371: FLUID MECHANICS I
University of Queensland: Australia
MECH2410: Fundamentals of Fluid Mechanics
This course introduces students to the basic principles of fluid mechanics, and focuses on applied calculations. Fluid mechanics is important for aerodynamics (for land vehicles, aeroplanes and space planes) and many engineering industries rely on effective flow of fluids, as well as efficient contacting between fluids and solids. Learning from this course could be applied in many other courses in all disciplines.
MECH 371: FLUID MECHANICS I
University of Edinburgh
SCEE08003: Fluid Mechanics 2
The student should develop an awareness of the qualitive behaviour of fluids in typical situations so that models of problems can be set up for solution. The course's objectives are to:
1. Produce quantitative solutions for models derived from some useful applications in the fields of measurement and pipe flow;
2. Establish enough theoretical background to enable the range of validity of these basic solutions to be understood; and to
3. Provide a starting point with respect to terminology and theory for more advanced study in subsequent years.
MECH 371: FLUID MECHANICS I
Monash University
MEC2404: Mechanics of fluids
This unit develops the students' physical understanding of fluid statics and fluid flow and the interaction of fluid forces with solids. Topics include hydrostatics, Reynolds transport theorem, continuity and momentum equations, control volume analysis, the Bernoulli equation, viscous pipe flow, pumps, dimensional analysis, boundary layers, flow measurement techniques and applications of fluid forces in flow - lift and drag.
MECH 371: FLUID MECHANICS I
Trinity College Dublin
ME3B2: Fluid Mechanics 1
This course introduces the student to the basic concepts underlying the mechanics of fluid motion. The appropriate scientific principles and mathematical modelling techniques are described and then applied to practical engineering problems. Four different modelling techniques are discussed: exact analytical solutions using Navier‐Stokes equations; approximate approaches (e.g. boundary layer integral analysis);
similarity (dimensional) analysis for experimental data; and numerical simulation using RANS. Real life problem‐solving skills are cultivated within the framework of practical flow devices and systems (e.g. piping system components, fluid machines, vehicle drag). Environmental and social implications are briefly discussed.
MECH 371: FLUID MECHANICS I
Auburn University
MECH 3030: Fluid Mechanics
This course will present and demonstrate to the students the following:
1. A mathematical and physical understanding of the concepts of stress and strain rate in fluids. (Program Outcomes 1, 2).
2. The concepts of conservation of mass, momentum equations, and conservation of energy in both integral and differential formulations. (P. O. 1, 2).
3. The role of experimental tools in analysis of a wide range of complex fluid problems. (P. O. 1, 2, 5, 7).
4. An introduction to the analysis of ideal and viscous flows. (P. O. 1, 2, 7).
MECH 371: FLUID MECHANICS I
University of Technology Sydney
48641: Fluid Mechanics
This subject aims to enable students to: understand key concepts and fundamental principles, together with the assumptions made in their development, pertaining to fluid behaviour, both in static and flowing conditions; deal effectively with practical engineering situations, including the analysis and design of engineering systems and devices involving fluids and flow; appreciate possible applications and links to other disciplines; and engage in further specialised study or research. The subject also aims to enhance interests in fluid phenomena and applications. Topics include: fluid properties and statics; conservation laws of mass, momentum and energy; flow in pipes; external flow (lift and drag); boundary layers; flow measurements; and environmental fluid mechanics.
MECH 3XX: DEPT APPROVED TRANSFER CREDIT
Universidad Carlos III de Madrid
14198: Machine Theory
Predimensioning of a machine depending on the requirements and requests that will be submitted. Analysis of the kinematic and dynamic of machines and space mechanisms. Analysis of the behavior of in rotation and / or translation elements. Modeling and simulating of machines (modeling methods and computer simulation).
MECH 400: ADV MECHANICS OF MATERIALS
Hong Kong UST
MECH3020: Mechanics of Solids II
Bi-axial stress state and failure criteria; thick-walled cylinders and spinning disks; bending
of plates; elastic foundations; unsymmetric bending and torsion; curved beams; frame
analysis; energy methods; plastic collapse and limit analysis.
MECH 403: COMPUTER AIDED DESIGN
Irvine Valley College
ENGR 83: Computer-Aided Design Techniques
This intermediate-level course presents the latest techniques in parametric 3D computer-aided design and analysis. Students integrate design criteria such as materials of construction, manufacturing processes, cost constraints, aesthetics, and failure assessment to generate and refine industry-standard mechanical components.
MECH 403: COMPUTER AIDED DESIGN
University of Edinburgh
MECE09029: Computer Aided Engineering 3
The course aims to develop an understanding of the techniques used in Computer Aided Design and Manufacture. This is undertaken through both industry-based CAD/CAM exercises and an introduction to the technologies involved in the research and development of CAD/CAM systems.
MECH 412: VIBRATIONS
Koç University
MECH 511: Theory of Vibration
Teaches deterministic vibratory motion of mechanical systems. Includes free, forced-harmonic, forced-periodic, and forced-transient vibration of single-degree-of-freedom, multiple-degree-of-freedom, and continuous systems. It also gives an introduction to the Finite Element Method.
MECH 417: FINITE ELEMENT ANALYSIS
Ecole Centrale Paris
MG2817: Applications of the Finite Element Method
The finite element method has become a method of choice for computational engineering and science simulations. The main objective of the course is to develop skills to effectively use the finite element method for the analysis of problems in solid and fluid mechanics. Students will learn the basic principles of the method, how to develop suitable finite element models, and how to interpret the numerical results. A second objective is to familiarize students with the COMSOL Multiphysics software. The skills acquired in this course will be useful for the supervision of conception and design projects.
MECH 420: FUNDAMENTALS OF CONTROL SYST
University of Queensland: Australia
METR4201 : Control Engineering I
Introduction to control system design; system modelling principles for electrical & mechanical systems; the Laplace transform; block diagram modelling; open & closed loop control; role of feedback; transient & steady state performance; root locus; frequency response analysis; compensator design, practical issues in the implementation of control systems. In 2019, the course has been redesigned as part of the UQ2U program. This approach is intended to provide students with a signature UQ experience that maximises campus-based `face time¿ with academics and peers, in combination with high-value, flexible online learning.
MECH 420: FUNDAMENTALS OF CONTROL SYST
Boğaziçi University
ME 335: Modeling and Control of Dynamic Systems
The general goal of the course is to develop an understanding and ability to use tools to model, analyze, and design/modify mechanical and electromechanical and control systems to achieve desired behavior in face of external disturbances.
MECH 472: THERMAL DESIGN
Hong Kong UST
MECH4340: Air Conditioning Systems
Introduction of heating, ventilating and air conditioning (HVAC) systems, moist air
properties, heat transmission in building structures, solar radiation, air conditioning
cooling load and heating load calculation, air distribution system design, indoor air
quality, economic analysis, alternative cooling systems.
MECH 481: HEAT TRANSFER
Nanyang Technological University
MA3003: Heat Transfer
A comprehensive knowledge of heat transfer is essential to the training of a mechanical engineer in our knowledge-based economy. As a first course on the subject, it covers the essential topics of heat transfer viz. one-dimensional, steady and unsteady heat conduction, extended surface heat transfer, convection fundamentals and applications, principles and methods of heat exchanger rating and design and radiation heat transfer analysis.
MECH 481: HEAT TRANSFER
University of Queensland: Australia
MECH3400: Thermodynamics & Heat Transfer
2nd law, entropy & availability. Power & refrigeration cycles. Mixtures, psychrometry, chemical reactions & combustion. Conduction, convection, radiation, multi-mode heat transfer applications.
MECH 481: HEAT TRANSFER
Boğaziçi University
ME 362: Heat Transfer
Steady and transient one and multi-dimensional heat conduction in systems; numerical methods and special applications. Internal and external forced convection, natural convection and condensation. Heat transfer by radiation. Heat transfer by radiation. Heat exchangers and design of heat transfer systems.
MECH 488: DESIGN OF MECHATRONIC SYSTEMS
University of Queensland: Australia
METR3100 : Control System Implementation
Industrial control technology: the role of sensors and actuators, risk-based design, industrial controllers. Actuators: simulation and modelling of loads, actuator selection, motor performance and prediction. Sensors: operation and selection of sensors. Design of industrial control/automation system.
MECH 498: INTRODUCTION TO ROBOTICS
Hong Kong UST
MECH4710: Introduction to Robotics
Rigid body motion, forward and inverse kinematics, manipulator Jacobians, force relation, dynamics and position control robot manipulators, force control and trajectory generation, collision avoidance and motion planning, robot programming languages.
MECH 498: INTRODUCTION TO ROBOTICS
Koç University
MECH 544: Robotics
Fundamental concepts of modeling, control sensing, and intelligence of robotic systems. Robotic manipulators and mobile robots. Forward and inverse kinematics, trajectory planning, dynamics, control, and programming of robotic manipulators. Hardware components of mobile robots, visual and navigational sensors, pose estimation, navigation, and reasoning in mobile robots. Hands-on experience with robotic arms and mobile robots in a laboratory environment.
MECH 527: COMPUTATIONAL STR MECH & FEM
Georgia Tech
ME 6124: Finite-Element Method: Theory and Practice
Line, plane, solid, plate, and shell elements-theory: practical aspects of modeling; applications in mechanical engineering; final project.
MECH 556: LEGAL THEMES IN ENGI PRACTICES
Georgia Tech
ME 6799: Legal Issues in Technology Transfer
Study and analysis of U.S. law as it applies to the patenting and licensing processes. Crosslisted with CHE, MGT, and BMED 6799.
MECH 573: ADVANCED FLUID MECHANICS I
Hong Kong UST
MECH 5210: Fluid Dynamics
Tensor notation, derivation of Navier-Stokes equations, vorticity transport, viscous flow, flow separation, boundary layer, flow instability, turbulent boundary layer, stratified flow, rotating flow.