This module covers capillary gravity waves, highlighting their formation and characteristics. Key points include:
Students will explore the interaction of gravity and surface tension forces, leading to a comprehensive understanding of small-scale wave dynamics.
This module provides an introduction to the foundational concepts of Marine Hydrodynamics, focusing on ideal and viscous incompressible fluids. Key topics include:
Students will gain insights into the basic principles governing fluid motion and the significance of these principles in marine contexts.
This module delves into the Law of Conservation of Mass, emphasizing the Continuity Equation in fluid dynamics. Students will explore:
By completing this module, students will understand the significance of mass conservation in marine hydrodynamics and its practical applications.
This module focuses on the concepts of streamlines and flow direction, essential for understanding fluid motion. Key areas include:
Students will engage with real-world examples to illustrate these concepts, enhancing their understanding of fluid dynamics in marine environments.
This module presents a variety of worked examples on different types of fluid flow. Students will cover:
Through these examples, students will develop practical skills in analyzing fluid dynamics, enhancing their capability to apply theoretical knowledge.
This module explores the Equation of Motion, emphasizing the Law of Conservation of Momentum. Students will learn:
By analyzing various scenarios, learners will appreciate the interrelationships between momentum, forces, and fluid motion in marine contexts.
This module continues the exploration of the Equations of Motion, focusing on their applications in fluid mechanics. Key topics include:
Students will engage with various problems to solidify their understanding of momentum and its role in marine hydrodynamics.
This module serves as a continuation of the previous module, further exploring applications of Equations of Motion. Students will investigate:
Through hands-on exercises, students will enhance their analytical skills and apply theoretical knowledge to solve complex fluid dynamics problems.
This module delves into the fundamental concepts of fluid mechanics, focusing on the behavior of ideal and viscous incompressible fluids. We will explore:
Students will engage with practical problems to better understand the theoretical concepts introduced.
This module focuses on two-dimensional fluid motion, introducing key concepts and theories essential for understanding fluid dynamics:
Numerous worked examples will reinforce understanding of these concepts.
This module covers vortex systems in fluid dynamics, focusing on various vortex types and their applications:
This module will enhance students' grasp of vortex dynamics and their implications in aerodynamics.
This module examines viscous fluids, focusing primarily on the Navier-Stokes equations and laminar flow. Key topics include:
Practical applications and problem-solving will be emphasized throughout the module.
This module introduces gravity waves and their dynamics, offering insights into various wave phenomena:
This module aims to provide a comprehensive understanding of wave dynamics in various contexts.
This module focuses on advanced topics in two-dimensional flows, building on the principles learned in prior modules:
Students will engage in problem-solving activities to deepen their understanding of two-dimensional fluid dynamics.
This module simplifies complex concepts in aerofoil theory and applications, preparing students for practical applications in engineering:
Students will engage in practical exercises to solidify their understanding of aerofoil dynamics in engineering contexts.
This module provides an in-depth exploration of Aerofoil theory. It continues from previous discussions, focusing on complex potential and the method of conformal mapping.
Key topics include:
Students will engage in problem-solving to reinforce their understanding of the theoretical concepts, with practical applications emphasized throughout.
This module continues the study of Aerofoil theory, delving deeper into the aerodynamic principles that govern airfoil performance. Students will analyze flow patterns and their implications for lift and drag.
Key discussions include:
Through lectures and problem sets, students will gain a richer understanding of how theory translates into practical aircraft design considerations.
This module introduces the Schwarz-Christoffel Transformation, a powerful mathematical tool in complex analysis used in fluid dynamics.
Key topics covered will include:
Students will engage in practical exercises, applying the transformation to various fluid flow scenarios while solidifying their understanding of complex variables.
This module investigates the motion of a cylinder in fluid flow, focusing on both theoretical and practical aspects of fluid motion analysis.
Students will study:
Through lectures and problem-solving sessions, students will learn to apply theoretical principles to practical fluid dynamics scenarios.
This module focuses on the vertex motion, exploring its significance in fluid dynamics and its applications in different scenarios.
Topics covered include:
Students will work through practical problems that illustrate the concepts, enhancing their understanding of how vertex motion affects fluid behavior.
This module provides a comprehensive overview of irrotational flow, including concepts and applications in fluid dynamics.
Key points include:
Students will engage in problem-solving activities that reinforce theoretical concepts and their application in practical situations.
This module introduces students to the fundamentals of water waves, covering their behavior and significance in marine hydrodynamics.
Topics include:
Students will analyze various wave phenomena and their importance in marine applications, enhancing their understanding of physical oceanography.
This module introduces the basic equations and conditions governing water waves. It covers fundamental principles such as:
Students will learn how to derive and apply the fundamental equations related to wave dynamics and understand the physical implications of different wave conditions.
This module delves into the kinematics of water particles during wave motion. Key topics include:
Through this module, students will gain insights into how water particles behave in response to wave action, enhancing their understanding of fluid motion in marine environments.
This module covers capillary gravity waves, highlighting their formation and characteristics. Key points include:
Students will explore the interaction of gravity and surface tension forces, leading to a comprehensive understanding of small-scale wave dynamics.
This module focuses on the Linearised Long Wave Equation, which is fundamental for understanding long wave behavior in fluids. Topics include:
Through practical examples and problem-solving, students will learn how to analyze long wave phenomena in various contexts.
This module continues the study of the Linearised Long Wave Equation, delving deeper into its applications and implications. Key elements include:
Students will gain hands-on experience in analyzing and predicting long wave behavior, solidifying their understanding of wave dynamics.
This module examines wave motion in two-layer fluids, providing insights into complex fluid interactions. Key topics include:
Through theoretical analysis and practical applications, students will learn how to approach problems involving multi-layered fluid systems.
This module showcases worked examples on wave motion, allowing students to apply theoretical concepts to practical scenarios. The content includes:
By engaging in practical exercises, students will reinforce their understanding and gain confidence in applying wave motion principles.
This module delves into the advanced concepts of wave motion, focusing on worked examples that illustrate the fundamental principles of fluid dynamics. Students will engage with:
By the end of this module, students will develop a deeper understanding of wave dynamics and its relevance in marine hydrodynamics.
This module introduces students to gravity wave transformation and energy rotation. Key topics will include:
Students will engage in problem-solving sessions that explore theoretical concepts applied to real marine environments.
This module continues the exploration of gravity wave transformation and energy rotation, with a focus on:
By the end of the module, students will enhance their understanding of complex wave interactions and energy dynamics.
The focus of this module is to further analyze gravity wave transformation and energy rotation with additional examples and applications. Areas of study will include:
This module emphasizes critical thinking and application of theoretical knowledge to practical scenarios.
This module introduces the Navier-Stokes equation of motion, a fundamental equation in fluid dynamics. Key topics will include:
Students will gain a solid grasp of how these equations govern fluid behavior and dynamics.
This module provides an extensive analysis of basic flow problems in fluid dynamics. The content will cover:
Students will enhance their analytical skills and deepen their understanding of fluid behavior through practical examples.
This module continues the analysis of basic flow problems, focusing on more complex scenarios in fluid dynamics. Highlights include:
By completion, students will have developed a comprehensive understanding of flow dynamics and their implications in real-world contexts.
This module covers the fundamental concepts of fluid mechanics, particularly focusing on ideal and viscous incompressible fluids. Key topics include:
Students will engage in problem-solving sessions to apply theoretical knowledge effectively. By the end, learners will be equipped with a strong foundational understanding of fluid dynamics that is essential for advanced studies in marine hydrodynamics.
This module delves into two-dimensional fluid motion, emphasizing concepts such as velocity potential and stream functions. Key learning outcomes include:
Through a series of example problems, students will gain the ability to interpret and predict the behavior of perfect fluids under various conditions.
In this module, the focus shifts to vortex dynamics and lifting surfaces. Key topics covered include:
This module enhances comprehension of how vortices affect lift and drag, crucial for applications in marine engineering and aerodynamics.
This module provides an in-depth analysis of viscous fluid dynamics, presenting the Navier-Stokes equations and their applications. Key areas of study include:
Students will learn to analyze real-world problems involving viscous fluids and their effects on hydrodynamic behavior.
This module focuses on gravity waves and their implications in marine hydrodynamics. Major topics include:
The module will also cover long waves and tidal phenomena, providing insights into their behavior and impact on marine structures.