A “fascinating and irresistible” blend of science and sports that reveals what a baseball (or bat, or player) in motion does—and why (The New York Times Book Review).How fast can a batted ball go? What effect do stitch patterns have on wind resistance? How far does a curveball break? Who reaches first base faster after a bunt, a right- or left-handed batter? The answers are often surprising—and always illuminating.This newly revised third edition considers recent developments in the science of sport such as the neurophysiology of batting, bat vibration, and the character of the “sweet spot.” Faster pitchers, longer hitters, and enclosed stadiums also get a good, hard scientific look to determine their effects on the game.Filled with anecdotes about famous players and incidents, The Physics of Baseball provides fans with fascinating insights into America’s favorite pastime.“Delivers scads of interesting facts.” —The Wall Street Journal Read more

Fluids and ElectrolytesLet’s be very clear about this, the best way to start studying a new topic is to learn the basic fundamentals first before diving into the details. That way, you will not feel overwhelmed because you will understand the bigger picture first.This book serves two purposes; It’s a great introduction for those that want a simple overview, and it’s also great for students looking for a quick recap that covers the most important information. How do you best prepare for an exam? If you don't have the time, you recap the fundamentals.This book is a must-have for all nursing and medical students looking to broaden or refreshen their skills of understanding human pathophysiology. It is perfect for anyone that wishes to work in the medical field, and it is a great complementary tool to have when preparing for the NCLEX!Many students are ordering this book together with other nursing books such as medical surgical nursing. To test your knowledge, we have included multiple-choice questions after each chapter. The answers to these questions can be found at the very end. There is no doubt, fluid maintenance remains one of the main foundations of medicine. Fluids are deemed as being the most essential substance of life. Around 60% of our body is made up of water, and this serves as a medium for transport of both nutrients and waste products. The electrolytes contained within the body water are responsible for the body’s most basic functions, such as nerve function, and functioning of voluntary and involuntary muscles, activating enzymes, and release of hormones. Any patient, who is presented with a fairly serious medical illness, is bound to have some kind of imbalance in the fluid-electrolyte levels. All patients in intensive care units are routinely screened for such imbalances. Thus, it is apparent that a medical professional needs to have a firm grasp of the fundamentals of electrolytes, fluids and acid-base balance in the body, so that effective treatment can be carried out.In this book, we will discuss the regulation of fluids, electrolytes, and the acid-base system, and how these factors are interconnected. When there is an imbalance in one of these electrolytes, the others are usually affected. Similarly, electrolyte imbalances can arise from, or be a result of, acid-base disorders. We will also discuss the signs and symptoms of various imbalances, and touch upon the management modalities for these imbalances. Common medical conditions where there are massive imbalances are described in the last chapter. There are summaries at the end of each chapter, that help you quickly glance through essential information.With this book you will:..Understand why Fluids and Electrolytes is such an important topic for clinicians..Learn and understand the basic fundamentals..Be able to test your knowledge with multiple-choice questions Go to the top-right of the page and click "Add to Cart" Read more

An authoritative, self-contained introduction to geometrical tensor calculus for scientists and engineersTensors are widely used in physics and engineering to describe physical properties that have multiple dimensions and magnitudes. In recent years, they have become increasingly important for data analytics and machine learning, allowing for the representation and processing of data in neural networks and the modeling of complex relationships in multidimensional spaces. This incisive book provides a geometrical understanding of tensors and their calculus from the point of view of a physicist. With a wealth of examples presented in visually engaging boxes, it takes readers through all aspects of geometrical continuum mechanics and the field and dynamic equations of Einstein, Einstein-Cartan, and metric-affine theories of general relativity. A Geometrical Introduction to Tensor Calculus gives graduate students, advanced undergraduates, and researchers a powerful and mathematically elegant tool for comprehending the behavior and applications of tensors across an array of fields.Offers a physicist’s perspective on geometrical tensor calculusIncludes dozens of examples that illustrate the geometrical use of tensors in continuum mechanics and general relativityCan serve as the basis for a course in tensor calculus for physicists and engineersInvaluable as a supplementary guide for anyone studying areas of physics that rely on tensor calculus, such as electrodynamics, geophysics, fluid and continuum mechanics, and general relativity Read more

Unlock the full potential of aerospace engineering with the most comprehensive guide available. Dive deep into the intricate interplay of physics, engineering, and technology that defines this cutting-edge field. This exhaustive handbook is your key to mastering the mathematical and theoretical foundations necessary for designing state-of-the-art aircraft and spacecraft. With Python coding examples accompanying each chapter, this resource provides a practical framework that links theoretical concepts to hands-on applications. Suitable for students, professionals, and enthusiasts alike, this book is a definitive guide for anyone looking to excel in the realm of aerospace engineering.Key Features:- In-depth exploration of foundational and advanced principles in aerospace engineering.- Practical Python code for every chapter to bolster learning through application.- A vast array of topics covering critical components of aerospace design and analysis.- Insightful explanations on equations, principles, and mechanisms essential for aerospace success.- Guidance on implementing data analytics and simulations integral to modern aerospace challenges.What You Will Learn:- Gain a solid understanding of fluid dynamics through the Bernoulli, continuity, and Navier-Stokes equations.- Analyze various flow patterns with Reynolds number applications for identifying laminar and turbulent flows.- Calculate lift and drag for aircraft design optimization.- Explore thrust generation principles essential for overcoming aerodynamic drag.- Apply conservation laws to momentum, energy, and gases with practical aerospace implications.- Understand the mechanics of shock waves and isentropic flows through Mach numbers and specific heat ratios.- Delve into advanced aerodynamics with Prandtl's lifting line theory and vortex dynamics.- Implement Euler's Equations in solving inviscid flow problems effectively.- Master calculations for wing load distributions and aerodynamic lift using methods like vortex panel.- Perform structural analysis using finite element methods to assess stresses and displacements.- Evaluate aerodynamic performance through complex flow simulation using RANS equations.- Understand the significance of boundary layers and laminar-turbulent transitions in aerospace design.- Control aerospace environments with modal analysis and eigenvalue evaluations.- Optimize flight trajectories using advanced trajectory algorithms for efficiency.- Simulate projectile motion and analyze supersonic diffuser designs.- Use data fusion techniques to improve accuracy in aerospace navigation systems.- Evaluate solar sail dynamics for innovative spacecraft propulsion concepts.- Apply Monte Carlo simulations and risk analysis for aerospace project management.- Analyze long-term satellite operations with orbit decay and trajectory optimization.- Implement advanced coding solutions like neural networks for adaptive aerospace controls.- Design effective thermal management solutions through heat transfer analysis and component heat flux evaluations.- Develop radar cross-section predictions critical for stealth technology.- Optimize the aerodynamic shape of aircraft components for enhanced performance.- Understand acoustics impact on aerospace materials and optimize vibrational modes in spacecraft design.- Leverage ion thruster equations for high-efficiency space propulsion.- Utilize Bayesian networks for robust aero decision-making under uncertainty.- Enhance real-world aerospace applications with cryogenic systems design and analysis.- Enhance navigation systems using Kalman filtering techniques.- Manage aerospace resources with precise critical path method algorithms for complex projects.- Modernize control systems with neural networks for responsive autonomous vehicles. Read more

Marginalian Editions presents a groundbreaking poet’s biography of the forgotten scientist who founded physical chemistry, shaping much of the 20th century—and an ingenious, expansive treatise on American creativity, character, and remembrance.Josiah Willard Gibbs (1839–1903) was an American visionary whose work shaped a century of science by bridging classical mechanics and quantum physics. A kindly and shy bachelor who lectured at Yale in relative obscurity for more than thirty years, he single-handedly created the field of physical chemistry without ever completing a single experiment. Gibbs’s visionary work enabled future scientists to predict what states a substance can assume and under what conditions—the implications for industry, agriculture, and warfare were vast. Hailed by Einstein as “the greatest mind in American history,” Gibbs remained essentially unknown.To acclaimed poet Muriel Rukeyser, Gibbs “lived closer than any inventor, any poet, any scientific worker in pure imagination to the life of the inventive and organizing spirit in America.” Rukeyser’s thoroughly researched and lyrical tribute to Gibbs is much more than a biography: it is an alchemical compound of philosophy, history, ethics, and literature writ large. It is the story of a country, a century, a global epoch of scientific creativity that would color every realm of human imagination and aspiration, from poetry to politics. Read more

LEVEL: This book covers waves, fluids, sound, heat, and light from physics with calculus at the university level. (If instead you’re looking for a trig-based physics book, search for ISBN 1941691188.) Note that the calculus-based edition includes all of material from the trig-based book, plus coverage of the calculus-based material. In this volume, the calculus is mostly limited to thermal physics.DESCRIPTION: This combination of physics study guide and workbook focuses on essential problem-solving skills and strategies:Fully solved examples with explanations show you step-by-step how to solve standard university physics problems.Handy charts tabulate the symbols, what they mean, and their SI units.Problem-solving strategies are broken down into steps and illustrated with examples.Answers, hints, intermediate answers, and explanations are provided for every practice exercise.Terms and concepts which are essential to solving physics problems are defined and explained.VOLUME: This volume covers waves, fluids, sound, heat, and light, including simple harmonic motion, standing waves, the Doppler effect, Archimedes’ principle, the laws of thermodynamics, heat engines, principles of optics, Snell’s law, thin lenses, spherical mirrors, diffraction, interference, polarization, and more.AUTHOR: The author, Dr. Chris McMullen, has over 20 years of experience teaching university physics in California, Oklahoma, Pennsylvania, and Louisiana (and has also taught physics to gifted high school students). Dr. McMullen currently teaches physics at Northwestern State University of Louisiana. He has also published a half-dozen papers on the collider phenomenology of superstring-inspired large extra dimensions. Chris McMullen earned his Ph.D. in particle physics from Oklahoma State University (and his M.S. in physics from California State University, Northridge).Dr. McMullen is well-known for:engaging physics students in challenging ideas through creativitybreaking difficult problems down into manageable stepsproviding clear and convincing explanations to subtle issueshis mastery of physics and strong background in mathematicshelping students become more fluent in practical math skillsSOLUTIONS: The back of the book includes a detailed section of hints, intermediate answers, final answers, and explanations to help you solve each problem one step at a time. It’s like having a physics tutor in the back of the book. (However, if you would prefer complete solutions, search for ISBN 1941691218.)USES: This study guide workbook can be used to:learn how to solve fundamental problems in physics with calculusfind fully-solved examples of standard physics problemsdevelop fluency in physics via practice exercises that include answers, hints, and explanationsquickly find the most essential physics terms, concepts, and formulasprepare for the AP physics examreview for standardized exams, such as AP Physics or the fundamentals of the GRE.CALCULATOR: Every problem in this book can be solved without the aid of a calculator. This is handy for students who will take a standardized exam like the GRE Physics, which doesn’t allow a calculator. (It’s also a handy skill to be able to estimate an answer without relying on a calculator.) Read more

This textbook is designed to provide undergraduate and graduate students with a comprehensive introduction to the principles of thermodynamics. It evolved from years of teaching undergraduate and graduate courses in thermodynamics, during which I consistently sought ways to present this often challenging subject in a clear, accessible, and engaging manner. My experience in research has informed the selection of examples and problem sets, ensuring that the theoretical concepts are connected to real world applications. The book begins with a foundational treatment of fundamental concepts such as temperature, heat, work, and energy, progressing gradually to more advanced topics. Each chapter is structured to build upon the previous one, allowing for a smooth transition between concepts. The numerous worked examples and diagrams provide visual aids to solidify understanding. The text includes a rich array of problems, varying in difficulty, to encourage critical thinking and reinforce mastery of the subject matter. I have incorporated a conversational tone to make the material more approachable and relatable, balancing academic rigor with an accessible writing style to engage diverse learners. I am confident that this book will serve as a valuable resource for students and professionals alike, enhancing their understanding of thermodynamics and enabling them to tackle a wider range of engineering challenges. Feedback from students and colleagues has been invaluable in shaping this text into a comprehensive and student-friendly resource. I encourage readers to engage actively with the material, utilizing the worked examples and tackling the problem sets to fully grasp the concepts.Thermodynamics, at its core, is the study of energy and its transformations. It is a fundamental science that underpins many branches of engineering, including mechanical, chemical, and aerospace engineering. This textbook provides a thorough exploration of thermodynamic principles, starting with basic definitions and progressing to more advanced applications. We will explore the zeroth, first, second, and third laws of thermodynamics, understanding not only their theoretical foundations but also their practical implications in various engineering systems. The concept of entropy, a measure of disorder, will be explained in detail and linked to the concept of irreversibility. We will delve into the analysis of thermodynamic cycles, including Carnot, Rankine, Otto, and Diesel cycles, examining their efficiency and limitations. Furthermore, we will examine the behavior of pure substances and their phase transitions, using property tables and diagrams to solve practical problems. Chemical thermodynamics will be addressed, covering chemical reactions and equilibrium. Statistical thermodynamics will be briefly introduced to connect microscopic properties to macroscopic behavior. Finally, we will conclude with a look at advanced applications, including exergy analysis, compressible flow, and case studies demonstrating the diverse uses of thermodynamics in modern engineering. This book aims to provide a solid foundation in thermodynamics, equipping readers with the tools they need to analyze and solve complex engineering problems. Throughout the text, we will emphasize practical applications, using real-world examples and analogies to illustrate abstract concepts. This approach will bridge the gap between theoretical principles and practical applications, allowing readers to readily apply their knowledge in various contexts. Read more

Unlock the true potential of advanced thermal modeling and simulation with a comprehensive, code‐driven guide that propels you beyond the basics! Designed for engineers, researchers, and graduate students, this resource transforms complex thermodynamic and heat transfer challenges into manageable, Matlab-coded solutions. Dive into dozens of in‐depth chapters where every concept is paired with full Matlab code examples that let you:• Solve Nonlinear State Equations: Master numerical root-finding algorithms that crack the complexity of equations of state like van der Waals and Redlich-Kwong.• Implement Finite Difference and Volume Methods: Build robust simulations for 1D to multi-dimensional heat conduction challenges.• Model Conjugate Heat Transfer: Seamlessly couple fluid and solid thermal domains for realistic energy exchange simulations.• Simulate Thermal Cycles: Code complete Brayton, Rankine, Otto, and Diesel cycles for enhanced system performance insights.• Optimize Thermal Designs: Leverage Matlab’s optimization, neural networks, and genetic algorithms to fine-tune heat exchanger networks and energy systems.• Integrate Symbolic and Numerical Techniques: Simplify and solve intricate radiative heat transfer and energy balance equations with advanced symbolic-numerical integration.• Automate Parameter Sweeps and Sensitivity Analyses: Execute comprehensive simulations that explore the full design space, ensuring your models are both precise and robust.Every example in this hands-on guide is meticulously engineered to bridge theory with practical application—empowering you to transform abstract equations into operational, high-precision code. Whether you’re refining forced or natural convection models, constructing thermal resistance networks, or embarking on full-cycle thermal simulations, you’ll find the cutting-edge tools you need to succeed. Read more

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Einstein’s Dreams meets Tuesdays with Morrie in Leonard Mlodinow’s touching memoir about the guidance granted him by his mentor, the brilliant physicist Richard Feynman.For some, it was that special connection with a grandparent or a football coach, a boss, or a cleric. For Leonard Mlodinow, as a young physicist struggling to find his place in the world, the relationship that would most profoundly influence his life was with his mentor, the Nobel Prize-winning physicist Richard Feynman. Drawing on transcripts from his many meetings with Feynman during their time together at Cal Tech, Mlodinow shares Feynman’s provocative answers to such questions as “What is the nature of creativity?” and “How does a scientist think?” At once a moving portrait of a friendship and an affecting account of Feynman’s final, creative years, FEYNMAN’S RAINBOW celebrates the inspiring legacy of one of the greatest thinkers of our time. Read more

A synthesis of historical literature and emerging research suggests the modern-day quantum field theory (QFT) in physics was understood by cultures of antiquity (Shabana, 2012; Quehenberger, 2013). For example, the customs and practices of the ancient Egyptians align with the tenets of QFT, which suggest the tangible world as we know it, is entirely composed of frequency and vibration. Recognizing that all elements of temporal existence are variations of frequency and vibration has profound implications for multiple fields in modern science, including medicine.While modern science understands matter as composed of atomic and subatomic particles that constitute a molecular structure, traditional perspectives of physics are largely based upon notions of physical solids interacting with one another, rather than recognizing the non-solid nature of objects and the dynamic, mutually intertwined influence of multi-dimensional waves. Emerging discoveries support QFT and the notion that the material world, as perceived by modern humans, is composed entirely of vibrations (Shabana, 2012). Moreover, vibratory frequencies and their spectrum quality likely extend infinitely beyond the limited range of frequencies that are perceivable to the normative senses of humans. Most vibrations occur at extremely subtle levels, either above or below the perceivable range. Vibratory frequency composes matter, consciousness, sensation, perception, and reaction, underscoring the inseparable confluence of mind, body, spirit, and consciousness. These concepts were well understood by many cultures of antiquity, most notably the ancient Egyptians (Quehenberger, 2013). Literature and ancient artifacts indicate that the Egyptians possessed knowledge of the nature of the cosmos and embodied a more expansive, holistic understanding of both the nature of temporal reality as vibration and the influence of higher dimensions and consciousness on the temporal, physical world (Quehenberger, 2013). Examining these concepts in light of the modern QFT provides ontological insights that contextualize the nature of reality and existence. Read more

Using a new particle defined as one unit of Plank’s constant, Stephen Euin Cobb's "Pandemonial Dynamics" proposes a novel theory of everything. Billions of times smaller than a proton, this new particle is the sole component of all matter and energy, from electrons to galactic superclusters.While speculative, this book is unique in that it provides ideas for experiments that might falsify the author's theories, and also proposes a long list of computer simulations to explore and develop his ideas further.This book presents a bold and highly original vision of the universe, attempting to unify the fundamental particles and forces through the emergent properties of countless numbers of these sub-sub-subatomic particles acting as a group—particles which the author has named "pips." Read more

Vibration and Noise Engineering deals with the fundamentals of mechanical vibrations and noise engineering. The contents have been organized in such a way that the general requirements of the students are fulfilled. The text lays emphasis on mechanical engineering applications of the subject and develops conceptual understanding with the help of many worked-out examples. The book is primarily designed for postgraduate and undergraduate students who are in the later stages of their engineering course. It will also be well-suited for the practitioners. Read more

Gregory's Classical Mechanics is a major new textbook for undergraduates in mathematics and physics. It is a thorough, self-contained and highly readable account of a subject many students find difficult. The author's clear and systematic style promotes a good understanding of the subject: each concept is motivated and illustrated by worked examples, while problem sets provide plenty of practice for understanding and technique. Computer assisted problems, some suitable for projects, are also included. The book is structured to make learning the subject easy; there is a natural progression from core topics to more advanced ones and hard topics are treated with particular care. A theme of the book is the importance of conservation principles. These appear first in vectorial mechanics where they are proved and applied to problem solving. They reappear in analytical mechanics, where they are shown to be related to symmetries of the Lagrangian, culminating in Noether's theorem. Read more

Key Features:- A comprehensive guide to essential topics in thermodynamics and heat transfer.- Step-by-step Python code accompanies each chapter, allowing for hands-on learning and the ability to simulate complex scenarios.- Clear explanations of complex equations and principles make advanced concepts accessible.- Application-focused approach to bridge the gap between theory and practice.What You Will Learn:- Gain insights into the Zeroth Law of Thermodynamics and the concept of temperature equilibrium.- Comprehend the Ideal Gas Law and its applications in calculating thermodynamic properties.- Explore the principles of the First Law of Thermodynamics for energy conservation.- Calculate work and understand its effects on system energy with the Work-Energy Principle.- Delve into the modes of heat transfer: conduction, convection, and radiation.- Master the Thermal Conductivity Equation for quantifying conductive heat transfer.- Apply Fourier's Law to steady-state heat conduction analysis.- Utilize Newton’s Law of Cooling in convective transfer applications.- Determine flow regimes using the Reynolds Number.- Design efficient systems with Heat Exchanger Design Equations.- Analyze entropy and irreversibility through the Second Law of Thermodynamics.- Calculate theoretical efficiency using the Carnot Cycle.- Determine entropy changes across various processes.- Bridge thermodynamic properties with Maxwell’s Relations.- Predict phase transitions using the Clausius-Clapeyron Equation.- Navigate humidity calculations with the Psychrometric Chart.- Utilize Thermodynamic Property Tables for engineering problem-solving.- Analyze the Rankine Cycle for steam power applications.- Evaluate Heat Pump and Refrigeration Cycles with efficiency coefficients.- Understand Thermodynamic Potentials like Gibbs free energy.- Apply Finite Difference Methods for complex heat transfer problems.- Conduct Energy Balance Analysis for open systems.- Simplify analysis with the Lumped Capacitance Method.- Evaluate Heat Transfer in Insulated Pipes.- Explore Stefan-Boltzmann Law for thermal radiation effects.- Study radiation's spectral distribution with Planck's Law.- Solve Transient Heat Conduction problems analytically and numerically.- Simplify complex problems using Dimensional Analysis.- Compute Nusselt Numbers for various convective heat configurations.- Master the equations governing Boiling and Condensation.- Design and analyze Heat Pipe systems.- Formulate Thermal Resistances Networks for system analysis.- Assess energy degradation with Entropy Generation and perform Exergy Analysis. Read more

Amazon #1 Best Seller"It's very useful to have a unified overview of what we know, collected and recounted in one place. The Cosmic Machine​ will introduce you to the basic principles by which today's physicists organize the world." -Sean Carroll, author of The Big Picture: On the Origins of Life, Meaning, and the Universe Itself "A superb resource for science fans or those struggling to understand the subject; an impressive fit in an age of Bill Nye and Neil deGrasse Tyson web videos." -Kirkus Reviews​ "The Cosmic Machine​ succeeds on all accounts." -Midwest Book ReviewEnergy, Entropy, Atoms, and Quantum Mechanics form the very foundation of our universe. But how do they govern the world we live in? What was the difficult path to their discovery? Who were the key players that struggled to shape our current understanding?The Cosmic Machine​ takes you from the earliest scientific inquiries in human history on an exciting journey in search of the answers to these questions. In telling this fascinating story of science, the reader is masterfully guided through the wonderment of how scientific discoveries (and the key players of those discoveries) shaped the world as we know it today. With its unique blend of science, history, and biographies, The Cosmic Machine​ provides an easily accessible account without sacrificing the actual science itself. Not only will this book engage, enlighten, and entertain you, it will inspire your passion and curiosity for the world around us. Read more

Unlock the Secrets of Fluid Dynamics with Cutting-Edge MATLAB Code!Step into a world where advanced computational fluid dynamics meets hands-on MATLAB programming. This powerful resource is designed exclusively for engineers, researchers, and advanced students who demand practical, code-driven solutions for complex fluid mechanics challenges. Discover a treasure trove of robust, ready-to-run MATLAB code examples that bring theoretical concepts into vivid, real-world applications.What You'll Master:• High-Performance CFD Solvers: Learn how to build efficient data structures and vectorized operations to simulate realistic fluid flows.• Advanced Discretization Techniques: Code high-order finite difference schemes, pseudo-spectral methods, and implement the Navier–Stokes equations using the SIMPLE and PISO algorithms.• Turbulence & Multiphysics Modeling: Dive into turbulence modeling with k-ε, RANS, and LES strategies, and explore innovative methods like immersed boundaries and meshless SPH techniques.• Dynamic Flow Visualizations: Create stunning 3D contour plots, streamlines, and animated visualizations that bring your simulation results to life.• Parallel Computing in CFD: Unlock MATLAB’s parfor loops to significantly reduce computation times and handle large-scale simulation data with ease.Whether you're optimizing a simulation for high-speed compressible flows or experimenting with advanced turbulence analysis, every chapter empowers you with proven strategies and full MATLAB code examples designed to accelerate your problem-solving capabilities. Enhance your CFD projects, gain a competitive edge, and turn complex fluid dynamics into your playground of discovery! Read more

"Of all the men who attacked the flying problem in the 19th century, Otto Lilienthal was easily the most important. His greatness appeared in every phase of the problem. No one equaled him in power to draw new recruits to the cause; no one equaled him in fullness and dearness of understanding of the principles of flight; no one did so much to convince the world of the advantages of curved wing surfaces; and no one did so much to transfer the problem of human flight to the open air where it belonged."These words were spoken by Wilbur Wright, who successfully accomplished the first powered flight together with his brother Orville in 1903 on the sand dunes of the Outer Banks off the coast of North Carolina. Wilbur was talking about the most important of their predecessors, Otto Lilienthal.Lilienthal attracted worldwide attention due to the spectacular photographs showing him in flight, made possible by technology that had only just been developed by him. This fortuitousunion between a pioneer of aviation and the pioneers of so-called “instantaneous photography” is responsible for the immense contemporary popularity of Lilienthal’s flights around the globe, the first ever free flights performed by man. This book traces the life of the German aviation pioneer, focusing on the designs of his many aircraft and the photographic documentation that has survived. The presentation ends with a remarkable research project conducted by one of the authors, right up to and including his own training exercises with Lilienthal’s “normal soaring apparatus” and “large biplane”. This project offered new insight into Lilienthal’s work, and also led to a spectacular aerial meeting of Lilienthal's 1895 biplane and the Wright brothers’ 1902 biplane at a historic location on the Outer Banks. The book provides access to video material, largely stemming from this project. Read more

In "Keely and His Discoveries: Aerial Navigation," Mrs. Bloomfield H. Moore explores the groundbreaking theories and inventions of John Keely, a pioneer in the realm of aerial mobilization during the late 19th century. The book navigates the intersection of science fiction and emerging scientific thought, showcasing Keely's quest to harness vibratory energies for flight. Moore's literary style is both immersive and analytical, employing vivid descriptions and a methodical approach that reflects the optimism and experimental spirit of the era'Äôs technological advancements. Mrs. Bloomfield H. Moore, an accomplished writer and historian, has a keen interest in the intersection of technology and literature. Her extensive research into 19th-century inventors, particularly Keely, sheds light on how societal aspirations of the time influenced scientific endeavors. Moore's unique background as a female author in a male-dominated field adds depth to her analysis, offering fresh perspectives on the often-overlooked contributions of marginal figures in the scientific community. This book is highly recommended for readers interested in the history of aviation, alternative science, and the dynamic relationships between invention and cultural imagination. Moore'Äôs engaging narrative style invites both scholars and enthusiasts alike to appreciate Keely's visionary concepts, making it an essential addition to any literary or scientific library. Read more

Basic science of the principles of flight, covers using relatively simple maths and physics to scope the required parameters to begin to design and build a simple aeroplane. This 3rd edition also introduces the ideas of using computer visualisation tools such as CFD & FEM (Computerised Fluid Dynamics & Finite Element Method). Read more