Teaching Responsibility
LJMU Schools involved in Delivery:
LJMU Partner Taught
Learning Methods
Lecture
Practical
Module Offerings
5602ICBTME-MAR-PAR
5602ICBTME-SEP-PAR
Aims
The aim of this module is to advance learners' knowledge of the fundamental principles of Fluid Mechanics, and utilize these techniques to predict the fluid behavior in engineering applications through the context of computational and practical methods.
Learning Outcomes
1.
Demonstrate the understanding of basic concepts of fluid statics and dynamics
2.
Apply these concepts during problem solving
3.
Relate the theoretical concepts learned to practical aspects of fluid statics and dynamics
4.
Analyze and evaluate a practical fluid mechanics problem based on the concepts learned
Module Content
Outline Syllabus:
The No-Slip Condition, Classification of Fluid Flows, System and Control Volumes, Density and Specific Gravity, Ideal Gases, Vapor Pressure, Cavitation, Viscosity, Pressure, Pressure Measurement Devices, Fluid Statics Fundamentals, Hydrostatic Forces on Submerged Plane and Curved Surfaces, Buoyancy, Stability, Conservation of Mass, Mechanical Energy and Efficiency, Bernoulli’s Equation, General Energy Equation, Energy Analysis of Steady Flows, Control Volume (Selection and Forces), Linear Momentum Equation, Angular Momentum Equation, Losses in Piping Systems, Laminar Flow in Pipes, Turbulent Flow in Pipes, Entrance Region, Minor Losses, Piping Network, Pump Selection, Measurement (Flow Rate and Velocity), Drag, Lift, Flow over Flat Plates, Cylinders and Spheres, Pumps, Turbines, Fundamentals to Computational Fluid Dynamics (Equations of Motion, Solution Procedure, Meshing, Boundary Conditions), Laminar and Turbulent CFD, Hydraulic Power Systems and Circuits (Oil, Transmission Lines, Pumps, Control Valves, Accessories, Actuators), Introduction to Pneumatic Power Systems (Basic Advantages, Disadvantages and Elements)
The No-Slip Condition, Classification of Fluid Flows, System and Control Volumes, Density and Specific Gravity, Ideal Gases, Vapor Pressure, Cavitation, Viscosity, Pressure, Pressure Measurement Devices, Fluid Statics Fundamentals, Hydrostatic Forces on Submerged Plane and Curved Surfaces, Buoyancy, Stability, Conservation of Mass, Mechanical Energy and Efficiency, Bernoulli’s Equation, General Energy Equation, Energy Analysis of Steady Flows, Control Volume (Selection and Forces), Linear Momentum Equation, Angular Momentum Equation, Losses in Piping Systems, Laminar Flow in Pipes, Turbulent Flow in Pipes, Entrance Region, Minor Losses, Piping Network, Pump Selection, Measurement (Flow Rate and Velocity), Drag, Lift, Flow over Flat Plates, Cylinders and Spheres, Pumps, Turbines, Fundamentals to Computational Fluid Dynamics (Equations of Motion, Solution Procedure, Meshing, Boundary Conditions), Laminar and Turbulent CFD, Hydraulic Power Systems and Circuits (Oil, Transmission Lines, Pumps, Control Valves, Accessories, Actuators), Introduction to Pneumatic Power Systems (Basic Advantages, Disadvantages and Elements)
Module Overview:
The module explores the various fluid properties that influence fluid behaviors, followed by the expansion to preliminary Fluid Statics and Dynamics principles by looking into the governing laws. With a thorough understanding of these concepts, the module also presents opportunities to review practical considerations, and gain an awareness of advanced computational techniques to solve Fluid Mechanics problems relevant to Mechanical Engineering systems.
The module explores the various fluid properties that influence fluid behaviors, followed by the expansion to preliminary Fluid Statics and Dynamics principles by looking into the governing laws. With a thorough understanding of these concepts, the module also presents opportunities to review practical considerations, and gain an awareness of advanced computational techniques to solve Fluid Mechanics problems relevant to Mechanical Engineering systems.
Additional Information:
Students will be supported in their learning, to achieve the above learning outcomes, in the following ways:
By a series of lectures and tutorials and through participation within laboratory practical sessions for problem solving.
Self-managed investigative study to analyses cases related to fluid mechanics
Students will be supported in their learning, to achieve the above learning outcomes, in the following ways:
By a series of lectures and tutorials and through participation within laboratory practical sessions for problem solving.
Self-managed investigative study to analyses cases related to fluid mechanics