Fundamentals of Fluid Mechanics from Udemy

Welcome to our all-encompassing Fluid Mechanics course. In the modern world, understanding the behavior of fluids isn't just academic – it's essential. Fluid Mechanics stands as the backbone of many engineering advancements and solutions that shape our contemporary life, from sustainable water management and advanced transportation systems to energy-efficient designs and beyond. Engineers equipped with this knowledge aren't just advancing their careers; they're crafting the future. With our blend of theoretical insights and practical perspectives, you'll not only grasp the essentials but also appreciate the profound impact of Fluid Mechanics on our world.

Through a combination of theoretical concepts, practical examples, and hands-on exercises, you'll learn about the fundamental principles of fluid mechanics. Beyond the core principles, our course is enriched with numerical challenges, practice problems, and real-world fluid mechanics engineering applications. You'll delve into the myriad applications of fluid mechanics.

Reference books for this course:

Fluid Mechanics by Yunus A. Cengel, John M. Cimbala
Fundamentals of Fluid Mechanics, 6th Edition By Munson

What's inside

Learning objectives

Understanding the application areas of fluid mechanics, including aerodynamics, hydrodynamics, and industrial fluid flow systems.
Learning the fundamental principles of dimensional analysis, including units and dimensions, dimensional homogeneity, and dimensional analysis.
Understanding the nature of fluids, including the no-slip condition, shear stress, and viscosity, as well as the different types of fluids.
Learning how to calculate shear stresses and velocity profiles, and understanding the behavior of shear thickening and shear thinning fluids.
Understanding the concept of pressure and hydrostatic pressure, and learning how to calculate specific gravity.
Learning how to use different types of manometers, such as the piezometer and u-tube manometer, to measure pressure and calculate buoyancy.
Understanding the concept of fluid flow rates, including continuity equation, commercial pipe and tubing, and pipe selection.
Learning how to apply the principles of bernoulli's equation to calculate volumetric flow rates in different applications,such as tanks, reservoirs and venturi.
Understanding the general energy equation and its applications to pumps, fluid motors, and valves and fittings.
Learning how to calculate the mechanical efficiency of pumps and the power delivered to fluid systems, and understanding the various types of energy losses.

Understanding the concept of reynolds number and its applications to laminar and turbulent flow, as well as the hydraulic radius for non-circular pipes.
Learning how to use moody's chart to calculate friction loss, darcy's equation, and the effect of friction loss on energy loss.
Understanding the concept of minor losses and their impact on fluid flow, as well as calculating energy losses due to enlargements and contractions.
Learning how to calculate all energy losses in moving fluid, including losses through valves and fittings, and understanding the resistant coefficient.
Understanding the different types of flow meters, including variable head meters, variable area flow meters, and velocity probes, and their selection factors.
Learning how to measure flow rate and velocity in open channel flow, including weirs, rectangle notches, contracted weirs, and triangle weirs.
Understanding the different types of positive displacement pumps, including reciprocating, rotary, kinetic, self-priming, and centrifugal pumps.
Learning about cavitation and vapor pressure, and understanding the importance of npsh margin and impeller size in pump performance.
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Understanding the application areas of fluid mechanics, including aerodynamics, hydrodynamics, and industrial fluid flow systems.
Learning the fundamental principles of dimensional analysis, including units and dimensions, dimensional homogeneity, and dimensional analysis.
Understanding the nature of fluids, including the no-slip condition, shear stress, and viscosity, as well as the different types of fluids.
Learning how to calculate shear stresses and velocity profiles, and understanding the behavior of shear thickening and shear thinning fluids.
Understanding the concept of pressure and hydrostatic pressure, and learning how to calculate specific gravity.
Learning how to use different types of manometers, such as the piezometer and u-tube manometer, to measure pressure and calculate buoyancy.
Understanding the concept of fluid flow rates, including continuity equation, commercial pipe and tubing, and pipe selection.
Learning how to apply the principles of bernoulli's equation to calculate volumetric flow rates in different applications,such as tanks, reservoirs and venturi.
Understanding the general energy equation and its applications to pumps, fluid motors, and valves and fittings.
Learning how to calculate the mechanical efficiency of pumps and the power delivered to fluid systems, and understanding the various types of energy losses.
Understanding the concept of reynolds number and its applications to laminar and turbulent flow, as well as the hydraulic radius for non-circular pipes.
Learning how to use moody's chart to calculate friction loss, darcy's equation, and the effect of friction loss on energy loss.
Understanding the concept of minor losses and their impact on fluid flow, as well as calculating energy losses due to enlargements and contractions.
Learning how to calculate all energy losses in moving fluid, including losses through valves and fittings, and understanding the resistant coefficient.
Understanding the different types of flow meters, including variable head meters, variable area flow meters, and velocity probes, and their selection factors.
Learning how to measure flow rate and velocity in open channel flow, including weirs, rectangle notches, contracted weirs, and triangle weirs.
Understanding the different types of positive displacement pumps, including reciprocating, rotary, kinetic, self-priming, and centrifugal pumps.
Learning about cavitation and vapor pressure, and understanding the importance of npsh margin and impeller size in pump performance.
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Show less

Syllabus

Introduction to Fluid Mechanics

Introduction to Fluid Mechanics, Applications,Importance of Dimensions and Units

Dimensions, Dimensional Homogeneity and Unity, Example Problem

Traffic lights

Read about what's good

what should give you pause

and possible dealbreakers

Covers essential topics like Bernoulli's equation, Reynolds number, and pump efficiency, which are fundamental for mechanical engineering and related fields

Includes practical examples and real-world engineering applications, which helps learners connect theory to practice and deepen their understanding

Explores various types of pumps, including positive displacement, reciprocating, and centrifugal pumps, which is valuable for those working with fluid systems

Requires reference books, which may pose a barrier to some learners who do not have easy access to these materials

Examines the concept of minor losses and their impact on fluid flow, which is crucial for accurate system design and analysis

Discusses cavitation and vapor pressure, which are important considerations for pump performance and system reliability

Reviews summary

Comprehensive fluid mechanics fundamentals

Based on the course content, prospective learners might find that this course offers a comprehensive introduction to the field. Students could appreciate the coverage of fundamental principles like viscosity, pressure, flow rates, and Bernoulli's equation. The course appears to delve into practical aspects such as pumps and energy losses, potentially providing a strong theoretical base complemented by numerical examples and real-world applications. While the course title suggests fundamentals, the detailed syllabus hints at significant depth, which could be a positive for serious students but might also indicate a challenging workload for beginners.

Goes deep into theoretical principles.

"The theory sections require careful study to grasp."

"It covers dimensional analysis and its importance."

"Understanding shear stress was a key theoretical takeaway."

Includes real-world examples and problems.

"Seeing the real-world applications helped solidify concepts."

"The practice problems reinforced my understanding."

"Applying Bernoulli's principle to venturi meters felt practical."

Covers wide range of fundamental topics.

"I learned about viscosity and pressure fundamentals."

"The syllabus covers flow rates, Bernoulli, and energy loss."

"It includes important topics like pumps and cavitation."

Provides a solid foundation in fluid mechanics.

"This course gave me the basics I needed to start."

"I feel I have a good grasp of the fundamental concepts."

"It's a strong starting point for more advanced studies."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Fundamentals of Fluid Mechanics with these activities:

Review Dimensional Analysis

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Reinforce your understanding of dimensional analysis to better grasp its application in fluid mechanics problems.

Browse courses on Dimensional Analysis

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Review the definitions of fundamental dimensions (mass, length, time, temperature).
Practice converting between different units of measurement.
Solve problems involving dimensional homogeneity.

Read 'Fluid Mechanics' by Cengel and Cimbala

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Deepen your understanding of fluid mechanics concepts with a comprehensive textbook.

View Fluid Mechanics: Fundamentals and Applications,... on Amazon

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Read assigned chapters before each corresponding lecture.
Work through example problems in the book.
Attempt end-of-chapter problems for practice.

Solve Bernoulli's Equation Problems

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Sharpen your skills in applying Bernoulli's equation to various fluid flow scenarios.

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Find practice problems related to Bernoulli's equation online or in textbooks.
Solve problems involving different applications of Bernoulli's equation (e.g., Venturi meters, Torricelli's theorem).
Check your solutions against provided answers or online resources.

Four other activities

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Create a Fluid Mechanics Glossary

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Solidify your understanding of key terms and definitions by creating a comprehensive glossary.

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Identify key terms and concepts from each module of the course.
Write clear and concise definitions for each term.
Include relevant equations or diagrams where applicable.
Share your glossary with peers for feedback and improvement.

Design a Simple Fluid System

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Apply your knowledge to design a practical fluid system, such as a water distribution network or a hydraulic system.

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Define the requirements and constraints of the fluid system.
Select appropriate components (pipes, pumps, valves) based on design requirements.
Calculate pressure drops and flow rates throughout the system.
Create a schematic diagram of the designed system.

Explore 'Fundamentals of Fluid Mechanics' by Munson et al.

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Supplement your learning with another widely-used textbook on fluid mechanics.

View Fundamentals of Fluid Mechanics on Amazon

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Read chapters related to topics covered in the course.
Compare and contrast the explanations with those provided in the primary textbook.
Work through additional example problems.

Create a Pump Selection Guide

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Develop a practical guide for selecting the appropriate pump for different fluid system applications.

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Research different types of pumps (centrifugal, positive displacement, etc.).
Identify key parameters for pump selection (flow rate, head, fluid properties).
Create a table or chart summarizing the characteristics and applications of each pump type.
Include examples of real-world applications and pump selection criteria.

Career center

Learners who complete Fundamentals of Fluid Mechanics will develop knowledge and skills that may be useful to these careers:

Fluid Mechanics Engineer

The role of a Fluid Mechanics Engineer involves designing systems and equipment that utilize or control fluids. This encompasses a wide range of applications, from designing efficient pipeline networks to optimizing the performance of hydraulic machinery. This course on Fluid Mechanics offers a strong foundation in understanding the fundamental principles governing fluid behavior, including viscosity, pressure, and flow rates. The course's overview of Bernoulli's equation, flow measurement techniques, and pump mechanics directly translates to the practical challenges faced by a Fluid Mechanics Engineer. A prospective Fluid Mechanics Engineer should take this course as it covers a wide range of theoretical and practical knowledge.

See salaries and explore the career path for Fluid Mechanics Engineer

Hydraulic Engineer

A Hydraulic Engineer is concerned with the design, construction, and maintenance of systems involving water or other fluids. This could range from irrigation systems and dams to flood control measures and coastal protection. This Fluid Mechanics course is excellent because it provides a comprehensive understanding of fluid properties, flow dynamics, and pressure calculations, all of which are crucial for the design and analysis of hydraulic systems. The course's coverage of manometry, buoyancy, and flow rates, as well as Bernoulli's equation, are particularly relevant to the work of a Hydraulic Engineer. This course is especially relevant for a hydraulic engineer because of the focus on fluid flow rates and the Bernoulli equation.

See salaries and explore the career path for Hydraulic Engineer

Aerospace Engineer

An Aerospace Engineer designs, develops, and tests aircraft and spacecraft. A crucial aspect of this role involves understanding aerodynamics and the behavior of air as a fluid. This course on Fluid Mechanics helps build a strong foundation in fluid dynamics, including concepts like viscosity, flow rates, and boundary layers, all of which are essential for understanding aerodynamic forces. The course's coverage of dimensional analysis, Reynolds number, and energy losses are also applicable to analyzing the performance of aircraft and spacecraft. Especially important for those pursuing this line of work in aerospace, is Bernoulli's Equation, taught in this course.

See salaries and explore the career path for Aerospace Engineer

Piping Design Engineer

Piping Design Engineers are responsible for designing and analyzing piping systems used in various industries, including oil and gas, chemical processing, and power generation. This Fluid Mechanics course is very useful for understanding fluid behavior within pipes, including pressure drop, flow rates, and energy losses due to friction. The course's coverage of Reynolds number, Moody's chart, and minor losses allows for estimating energy losses. This course is a good fit for aspiring Piping Design Engineers.

See salaries and explore the career path for Piping Design Engineer

Mechanical Engineer

Mechanical Engineers design, develop, and manufacture mechanical and thermal devices. Many of these devices involve fluid systems, such as pumps, turbines, and heat exchangers. This Fluid Mechanics course can help build a strong foundation in understanding fluid behavior, energy transfer, and system design. The course's coverage of Bernoulli's equation, pump efficiency, and friction loss calculations are particularly relevant to the work of a Mechanical Engineer. Mechanical engineers are taught about energy and efficiency in this course.

See salaries and explore the career path for Mechanical Engineer

Turbomachinery Engineer

Turbomachinery Engineers design and develop turbines, compressors, pumps, and other rotating machines that transfer energy between a fluid and a rotor. This Fluid Mechanics course can help build a strong understanding of the underlying principles governing the operation of these machines, including fluid dynamics, thermodynamics, and heat transfer. The course's coverage of Bernoulli's equation, pump efficiency, and cavitation are extremely relevant to the design and optimization of turbomachinery. Focus on pumps when considering this course.

See salaries and explore the career path for Turbomachinery Engineer

Irrigation Engineer

Irrigation Engineers specialize in designing and managing irrigation systems for agricultural purposes. This Fluid Mechanics course may be a good fit because it provides a foundation in understanding fluid flow, pressure, and energy losses in irrigation networks. The course's coverage of fluid flow rates, Bernoulli's equation, and pump selection are extremely applicable to the design and optimization of irrigation systems, ensuring efficient water distribution and minimizing water waste. Understanding Bernoulli's equation can be useful to the Irrigation Engineer.

See salaries and explore the career path for Irrigation Engineer

Energy Engineer

Energy Engineers work to improve energy efficiency and develop sustainable energy solutions. Many energy systems, such as power plants and renewable energy technologies, involve the transfer and conversion of energy using fluids. This Fluid Mechanics course helps build a foundation in understanding fluid dynamics, heat transfer, and energy losses. The course's coverage of the general energy equation, pump efficiency, and friction loss calculations are especially relevant to the design and optimization of energy systems. Energy losses will be an important topic for the Energy Engineer.

See salaries and explore the career path for Energy Engineer

Research Scientist - Fluid Dynamics

A Research Scientist specializing in Fluid Dynamics investigates fundamental principles and phenomena related to fluid behavior. Often, this role requires an advanced degree (Master's or PhD). This course on Fluid Mechanics provides a solid foundation in the essential concepts and equations governing fluid motion. The course's coverage of dimensional analysis, viscosity, and various flow regimes such as laminar and turbulent flow may be very useful in more advanced work. This is a great fit for a Research Scientist.

See salaries and explore the career path for Research Scientist - Fluid Dynamics

Naval Architect

Naval Architects design, construct, and maintain marine vessels and offshore structures. Understanding fluid mechanics is crucial for predicting vessel stability, resistance, and propulsion efficiency. This Fluid Mechanics course can help in providing a fundamental understanding of buoyancy, hydrostatic pressure, and fluid flow around ship hulls. The course's coverage of buoyancy, manometry, and fluid analysis are particularly applicable to the work of a Naval Architect. All aspiring Naval Architects can benefit from this course.

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Chemical Engineer

Chemical Engineers design and operate processes for producing chemicals, pharmaceuticals, and other materials. Many of these processes involve the handling and manipulation of fluids. This Fluid Mechanics course may be useful in providing a fundamental understanding of fluid properties, flow characteristics, and transport phenomena. The course's coverage of viscosity, flow rates, and pressure drop calculations, as well as the general energy equation, are particularly relevant to the design and optimization of chemical processes. Learning about fluid density and specific weight is especially helpful. A chemical engineer will find elements of this course useful.

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Environmental Engineer

Environmental Engineers work to protect the environment and human health through the design of solutions to environmental problems. This often involves managing water resources, treating wastewater, and controlling pollution, all of which require a solid understanding of fluid mechanics. This Fluid Mechanics course may be useful in providing essential knowledge of fluid properties, flow dynamics, and transport processes. The course's coverage of hydrostatic pressure, buoyancy, and flow measurement techniques are particularly relevant to the work of an Environmental Engineer. An environmental engineer focused on fluids will find this course helpful in this respect.

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Civil Engineer

Civil Engineers design and oversee the construction of infrastructure projects, including roads, bridges, buildings, and water systems. This Fluid Mechanics course may be useful to individuals interested in water-related aspects of civil engineering, such as designing drainage systems, managing stormwater runoff, or analyzing the flow of water in rivers and channels. The course's coverage of fluid flow rates, hydrostatic pressure, and open channel flow may be especially interesting and helpful to civil engineers. Those civil engineers who deal more directly with structures may find less utility in the course.

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Process Engineer

Process Engineers are involved in the design, development, and optimization of industrial processes, particularly in manufacturing and chemical industries. This Fluid Mechanics course may be useful because it provides a foundation for understanding fluid flow behavior within various systems such as pipelines and reactors. Topics like fluid flow rates, pressure, and viscosity may be very helpful to a Process Engineer. This course may be useful in understanding energy balances and fluid dynamics of a system.

See salaries and explore the career path for Process Engineer

Automotive Engineer

Automotive Engineers design and develop vehicles, focusing on performance, efficiency, and safety. This Fluid Mechanics course can help automotive engineers working on engine cooling systems, aerodynamics, and hydraulic systems. Topics like heat transfer, fluid flow, and drag reduction are relevant in automotive engineering. The course's exploration of Reynolds number is also sure to be useful. Consider this course as helping advance your career.

See salaries and explore the career path for Automotive Engineer

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Fundamentals of Fluid Mechanics.

Fluid Mechanics

Save

Comprehensive textbook covering fundamental principles and applications of fluid mechanics. It is well-suited for undergraduate students and provides a clear and accessible explanation of complex concepts. The book includes numerous examples, problems, and real-world applications, making it a valuable resource for students and practicing engineers. It strong reference for the course, as it is listed as a reference book.

Fluid Mechanics: Fundamentals and Applications,...

Kindle Edition

$$$

Fundamentals of Fluid Mechanics

Save

Provides a strong foundation in fluid mechanics, covering fundamental principles and applications. It is widely used in engineering curricula. The book features a clear and accessible writing style. It valuable resource for students seeking a comprehensive understanding of the subject.

Fundamentals of Fluid Mechanics

Hardcover

$$$$

Fundamentals of Fluid Mechanics

What's inside

Learning objectives

Syllabus

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Reviews summary

Comprehensive fluid mechanics fundamentals

Activities

Career center

Reading list

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