
Operating Reactors Safely and Reliably
Nuclear Engineering Fundamentals, Reactor Physics, Fuel, and Systems Design Best PracticesBy Yelena StrogovaLength15h 36m
About this audiobook
A reactor is a controlled neutron economy—and every indication on the panel traces back to it.
This book makes that connection explicit. You will build the neutron life cycle and the six-factor formula from the ground up, learn why delayed neutrons make a reactor steerable at all, compute rod worth and shutdown margin, and follow a xenon transient through a power reduction to see why a restart window closes. Rather than treating physics, fuel, thermal hydraulics, and plant systems as separate subjects, the text links them into one operating picture: how reactivity is created, controlled, and ultimately limited by the fuel and the coolant.
Fuel chapters cover burnup, pellet-clad interaction, and the reliability practices that keep cladding intact. Thermal-hydraulic chapters take you to critical heat flux and the margin that defines safe power. Plant chapters compare pressurized water, boiling water, heavy water, gas-cooled, and small modular designs, then work through startup, power maneuvering, shutdown cooling, decay heat, and emergency core cooling. The final chapters connect defense in depth, containment, probabilistic risk, radiation protection, outages, and operating experience to the daily decisions made in the control room and in engineering support.
What you will learn:
• How cross sections, fission energy, and the neutron life cycle determine criticality and the six-factor formula
• Why delayed neutrons and reactivity feedback make a reactor controllable, and how kinetics governs power changes
• How control rods, soluble boron, and shutdown margin are calculated and verified
• How temperature coefficients and inherent feedback stabilize or challenge a core
• How xenon and samarium transients constrain power maneuvering and restart windows
• How fuel design, burnup, and pellet-clad interaction affect fuel reliability
• How core thermal hydraulics, departure from nucleate boiling, and critical heat flux define safe power limits
• How pressurized water, boiling water, heavy water, gas-cooled, and small modular reactors differ in systems and operation
• How decay heat, shutdown cooling, emergency core cooling, containment, and probabilistic risk support defense in depth
For nuclear engineering students, plant staff in training, and technically literate readers who want a rigorous but accessible path from neutron economy to safe, reliable operation.
Audiobook details
GenreTechnology, Science and Nature
Length15 hrs 36 mins
Narrated byListen with 1,000+ voices
FormateBook with Audio
Publish dateSep 27, 2026
LanguageEnglish
Table of contents
1Operating Reactors Safely and Reliably
2Foreword
3Preface
4About This Book
5Important Safety Notice
Show all chaptersShow less
6Chapter 1: Nuclei, Cross Sections and Fission Energy
71.1 Nuclear Structure, Binding Energy and the Fission Reaction
81.2 Microscopic and Macroscopic Cross Sections
91.3 Neutron Flux, Reaction Rates and the Energy Spectrum
101.4 Energy Release, Fission Products and Decay Heat Origins
111.5 Neutron Sources, Multiplication and the Idea of a Chain Reaction
12Chapter 2: The Neutron Life Cycle and Criticality
132.1 Moderation, Slowing Down and Thermalization
142.2 Resonance Capture, Resonance Escape and Leakage
152.3 The Six-Factor Formula and the Effective Multiplication Factor
162.4 Criticality, the Multiplication Factor and Core Geometry
172.5 Conversion, Breeding and the Fuel Cycle Context
18Chapter 3: Reactivity, Delayed Neutrons and Reactor Kinetics
193.1 Reactivity, Its Units and the Multiplication Factor
203.2 The Point Kinetics Equations and Delayed Neutron Groups
213.3 The Prompt Drop, the Stable Period and the Inhour Equation
223.4 Prompt Criticality and the Limits of Control
233.5 Source Multiplication and the Subcritical Approach
24Chapter 4: Control Rods, Soluble Boron and Shutdown Margin
254.1 Differential and Integral Rod Worth
264.2 Soluble Boron, Dilution and the Boron Worth Curve
274.3 Rod Insertion Limits, Rod Misalignment and Shutdown Margin
284.4 Rod Control Systems, Drive Mechanisms and Failure Modes
29Chapter 5: Temperature Coefficients and Inherent Feedback
305.1 Fuel Doppler Broadening and the Fuel Temperature Coefficient
315.2 Moderator Temperature and Density Coefficients
325.3 Void Coefficient and the Two-Phase Moderator
335.4 The Power Coefficient, Stability and Load Following
34Chapter 6: Xenon, Samarium and Power Maneuvering
356.1 Xenon-135 Buildup, Equilibrium and Burnout
366.2 The Xenon Transient and the Restart Window
376.3 Samarium-149 and Other Poison Buildup
386.4 Axial Offset Control and Load Following Limits
39Chapter 7: Fuel Design, Burnup and Fuel Reliability
407.1 Fuel Pellets, Cladding and Assembly Design
417.2 Burnup, Reactivity Swing and Cycle Length
427.3 Pellet-Clad Interaction, Fission Gas and Crud
437.4 Quality Practices and Fuel Reliability
44Chapter 8: Core Thermal Hydraulics and Departure from Nucleate Boiling
458.1 Heat Generation and Heat Flux Profiles
468.2 Coolant Flow, Enthalpy Rise and Subcooled Boiling
478.3 Critical Heat Flux and Departure from Nucleate Boiling Margin
488.4 Natural Circulation, Flow Instability and Thermal Margin Protection
49Chapter 9: Reactor Types: Pressurized Water, Boiling Water, Heavy Water, Gas-Cooled and Small Modular
509.1 Pressurized Water Reactors