
The Fluid Power Engineer's Handbook
Hydraulic and Pneumatic Systems — Fundamentals, Design, and Real-World ApplicationsBy William CoxwellLength14h 42m
About this audiobook
If you have ever opened a hydraulic schematic and felt uncertain where to begin—or consulted a component catalog without a clear framework for evaluating what you were selecting—you are not alone. Fluid power is embedded in nearly every sector of modern industry, yet it receives surprisingly little structured treatment in engineering education. The result is a widely shared gap: engineers and students who know Pascal's law in isolation but lack the coherent system-level understanding needed to analyze, design, specify, or troubleshoot real hydraulic and pneumatic installations.
Hydraulics and Pneumatics: Fundamentals, Components, and Industrial Applications was written to close that gap. Covering both hydraulics and pneumatics within a single, structured text, the book derives every component relationship from its governing physics before applying it to real circuit analysis and system design — because an engineer who understands where the equations come from can adapt them to new problems, not just substitute numbers into a formula.
By working through this book, you will be equipped to:
• Apply Pascal's law, the continuity equation, Bernoulli's equation, and the orifice equation to real hydraulic circuit calculations, with full unit tracking at every step.
• Select, size, and compare hydraulic pumps, cylinders, motors, control valves, and conductors using the governing equations and systematic selection methodology.
• Analyze pneumatic systems using gas law calculations, design compressed air distribution networks, and size pneumatic actuators and valves using the flow factor method.
• Read, interpret, and draw hydraulic and pneumatic circuit diagrams using ISO 1219-1 graphical symbols — the international standard used in industry worldwide.
• Design complete fluid power systems, including reservoir sizing, accumulator sizing, multi-actuator circuits, and heat exchanger selection.
• Understand electrohydraulic and electropneumatic control — proportional valves, servo valves, closed-loop position control, and PLC ladder logic for fluid power sequences.
• Apply ISO 4413, ISO 4414, and structured troubleshooting methodology to maintain, commission, and diagnose faults in operating systems.
The book spans fifteen chapters across four structured parts: physical foundations, the full hydraulics sequence, the full pneumatics sequence, and integration with electronic control and industrial applications. SI units are used throughout, with US customary equivalents given in parallel. Every worked example shows the complete solution path. Practice problems progress from straightforward substitution to multi-step circuit analysis, and the answer key provides not just answers but brief solution outlines.
This is a text for upper-level undergraduate engineering students in mechanical, manufacturing, industrial, aeronautical, or mechatronics programs—and an equally practical working reference for practicing engineers who need to design, specify, or troubleshoot fluid power systems in the field.
If fluid power is part of your field — or will be — this structured guide gives you the physics, the methodology, and the practical knowledge to approach it with genuine competence. Get your copy and begin building the system-level understanding that separates a confident fluid power engineer from someone who guesses.
Audiobook details
GenreTechnology
Length14 hrs 42 mins
Narrated byListen with 1,000+ voices
FormateBook with Audio
LanguageEnglish
Table of contents
1The Fluid Power Engineer’s Handbook: Hydraulic and Pneumatic Systems — Fundamentals, Design, and Real-World Applications
2TRADEMARK NOTICE AND TECHNICAL DISCLAIMER
3PREFACE
4INTRODUCTION
5How to Use This Book
Show all chaptersShow less
6Prerequisites
7Standards and Units
8A Road Map of the Book
9CHAPTER 1: INTRODUCTION TO FLUID POWER: HISTORY, PRINCIPLES, AND SYSTEM OVERVIEW
101.1 What Is Fluid Power?
111.2 A Brief History of Fluid Power
121.3 Major Components of Fluid Power Systems
131.3.1 Hydraulic System Components
141.3.2 Pneumatic System Components
151.4 Pascal's Law and Hydrostatic Pressure Transmission
161.5 Fluid Power in Context: Comparison with Electrical and Mechanical Transmission
171.6 Fluid Power Standards: ISO, NFPA, and SAE
181.7 Looking Ahead
19Summary
20Practice Problems
21CHAPTER 2: FLUID MECHANICS FOUNDATIONS FOR FLUID POWER
222.1 Introduction: The Physical Laws Underlying Fluid Power
232.2 Pressure: Definitions, Units, and Measurement
242.3 The Continuity Equation: Conservation of Mass
252.4 Bernoulli's Equation: Conservation of Energy in a Flowing Fluid
262.5 Orifice Flow: The Hydraulic Valve Equation
272.6 Reynolds Number and Flow Regime
282.7 Viscosity: Dynamic, Kinematic, and the Viscosity–Temperature Relationship
292.8 Bulk Modulus: Fluid Compressibility and System Stiffness
302.9 Torricelli's Theorem and the Vena Contracta
312.10 Power Transmission in a Hydraulic Circuit
322.11 Connections to the Rest of the Book
33Summary
34Practice Problems
35CHAPTER 3: HYDRAULIC FLUIDS — PROPERTIES, SELECTION, AND CONTAMINATION CONTROL
363.1 Introduction: Why Fluid Selection Matters
373.2 Physical Properties of Hydraulic Fluids
383.2.1 Viscosity and the ISO Viscosity Grade System
393.2.2 Viscosity Index and the Walther Equation
403.2.3 Density, Bulk Modulus, and Thermal Properties
413.3 Hydraulic Fluid Types: Selection and Comparison
423.3.1 Petroleum Mineral Oils
433.3.2 Water-Based Fire-Resistant Fluids
443.3.3 Synthetic and Biodegradable Fluids
453.4 Hydraulic Fluid Contamination: Sources, Mechanisms, and Consequences
463.4.1 Types and Sources of Contamination
473.4.2 Measuring Contamination: The ISO 4406 Cleanliness Code
483.5 Filtration: Principles, Rating, and Selection
493.6 Fluid Condition Monitoring and Maintenance
503.7 Material Compatibility: Seals, Metals, and Paints