Daniel Graham – författare

In the sixth and fifth centuries B.C. a new kind of thinker appeared in Greek city-states, dedicated to finding the origins of the world and everything in it, using observation and reason rather than tradition and myth. We call these thinkers Presocratic philosophers, and recognize them as the first philosophers of the Western tradition, as well as the originators of scientific thinking. New textual discoveries and new approaches make a reconsideration of the Presocratics at the beginning of the twenty-first century especially timely.This handbook brings together leading international scholars to study the diverse figures, movements, and approaches that constitute Presocratic philosophy. More than a survey of scholarship, this study presents new interpretations and evaluations of the Presocratics' accomplishments, from Thales to the sophists, from theology to science, and from pre-philosophical background to their influence on later thinkers. Many positions presented here challenge accepted wisdom and offer alternative accounts of Presocratic theories.This handbook includes chapters on the Milesians (Thales, Anaximander, Anaximenes), Xenophanes, Heraclitus, Parmenides, Anaxagoras, Empedocles, the Pythagoreans, the atomists, and the sophists. Special studies are devoted to the sources of Presocratic philosophy, oriental influences, Hippocratic medicine, cosmology, explanation, epistemology, theology, and the reception of Presocratic thought in Aristotle and other ancient authors.

In Science before Socrates, Daniel Graham argues against the prevalent belief that the Presocratic philosophers did not produce any empirical science and that the first major Greek science, astronomy, did not develop until at least the time of Plato. Instead, Graham proposes that the advances made by Presocratic philosophers in the study of astronomy deserve to be considered as scientific contributions.Whereas philosophers of the sixth century BC treated astronomical phenomena as ephemeral events continuous with weather processes, those of the fifth century treated heavenly bodies as independent stony masses whirled in a cosmic vortex. Two historic events help to date and account for the change: a solar eclipse in 478 BC and a meteoroid that fell to earth around 466. Both events influenced Anaxagoras, who transformed insights from Parmenides into explanations of lunar and solar eclipses, meteors, and rainbows.Virtually all philosophers came to accept Anaxagoras' theory of lunar light and eclipses. Aristotle endorsed Anaxagoras' theory of eclipses as a paradigm of scientific explanation. Anaxagoras' theories launched a geometrical approach to astronomy and were accepted as foundational principles by all mathematical astronomers from Aristarchus to Ptolemy to Copernicus and Galileo-and to the present day.

Whether we realize it or not, we think of our brains as computers. In neuroscience, the metaphor of the brain as a computer has defined the field for much of the modern era. But as neuroscientists increasingly reevaluate their assumptions about how brains work, we need a new metaphor to help us ask better questions.The computational neuroscientist Daniel Graham offers an innovative paradigm for understanding the brain. He argues that the brain is not like a single computer—it is a communication system, like the internet. Both are networks whose power comes from their flexibility and reliability. The brain and the internet both must route signals throughout their systems, requiring protocols to direct messages from just about any point to any other. But we do not yet understand how the brain manages the dynamic flow of information across its entire network. The internet metaphor can help neuroscience unravel the brain’s routing mechanisms by focusing attention on shared design principles and communication strategies that emerge from parallel challenges. Highlighting similarities between brain connectivity and the architecture of the internet can open new avenues of research and help unlock the brain’s deepest secrets.An Internet in Your Head presents a clear-eyed and engaging tour of brain science as it stands today and where the new paradigm might take it next. It offers anyone with an interest in brains a transformative new way to conceptualize what goes on inside our heads.

Whether we realize it or not, we think of our brains as computers. In neuroscience, the metaphor of the brain as a computer has defined the field for much of the modern era. But as neuroscientists increasingly reevaluate their assumptions about how brains work, we need a new metaphor to help us ask better questions.The computational neuroscientist Daniel Graham offers an innovative paradigm for understanding the brain. He argues that the brain is not like a single computer—it is a communication system, like the internet. Both are networks whose power comes from their flexibility and reliability. The brain and the internet both must route signals throughout their systems, requiring protocols to direct messages from just about any point to any other. But we do not yet understand how the brain manages the dynamic flow of information across its entire network. The internet metaphor can help neuroscience unravel the brain’s routing mechanisms by focusing attention on shared design principles and communication strategies that emerge from parallel challenges. Highlighting similarities between brain connectivity and the architecture of the internet can open new avenues of research and help unlock the brain’s deepest secrets.An Internet in Your Head presents a clear-eyed and engaging tour of brain science as it stands today and where the new paradigm might take it next. It offers anyone with an interest in brains a transformative new way to conceptualize what goes on inside our heads.

This book explores the remarkable information correspondences and probability structures of proteins. Correspondences are pervasive in biochemistry and bioinformatics: proteins share homologies, folding patterns, and mechanisms. Probability structures are just as paramount: folded state graphics reflect Angstrom-scale maps of electron density. The author explores protein sequences (primary structures), both individually and in sets (systems) with the help of probability and information tools. This perspective will enhance the reader’s knowledge of how an important class of molecules is designed and put to task in natural systems, and how we can approach class members in hands-on ways.

A simple, ten-step system for mastering the art of effective, persuasive business or technical writing "The Grahams' system is the best way to transform data and ideas into meaningful information necessary to make profitable decisions. Their system works every time."—Steven Laposa, PhD, MBA, Loveland Commercial Endowed Chair in Real Estate, Colorado State University"The Grahams' straightforward program helps my teams create clear and concise reports, letters, and other documents with minimal effort. I want this program to become the standard for my teams."—Bill Walter, Senior Vice President, Government and Infrastructure Division, KBR"The Can Do Writing system made my career! I used it to write a winning business plan and proposal, and now I use it every day for all communications. Can Do Writing provides valuable insights into business and management as well as writing techniques."—Christian Robey, President, DC ProgressYou may be an expert at what you do, but if you can't communicate effectively in writing it may not matter. For scientists, businesspeople, and professionals in fields from engineering to public relations, the art of writing well can be a vital key to professional success.Luckily, you don't need an English degree to produce top-class writing. If you're one of the millions of people who have to write clear, persuasive, understandable documents for your job, Can Do Writing is for you. Whether you're writing a business plan, a scientific paper, a press release, or anything else, this simple, straightforward guide will show you how to do it quickly, with style and confidence. You'll learn how to: Understand your audience and subject matterDevelop a simple, five-part purpose statement to keep you on track Organize your main points into a coherent, sensible order Edit your work for clarity, coherence, organization, and logic Economize your words to craft a concise, powerful document Make your documents easily readable for any audience

This book explores the remarkable information correspondences and probability structures of proteins. Correspondences are pervasive in biochemistry and bioinformatics: proteins share homologies, folding patterns, and mechanisms. Probability structures are just as paramount: folded state graphics reflect Angstrom-scale maps of electron density. The author explores protein sequences (primary structures), both individually and in sets (systems) with the help of probability and information tools. This perspective will enhance the reader’s knowledge of how an important class of molecules is designed and put to task in natural systems, and how we can approach class members in hands-on ways.

One piercing energy beam is enough to shatter the calm of a seaport on a sunny day. Just one shot turns an idle dreamer into a hardened avenger. Enraged by the brutal terrorist attack that kills her entire family, Andrea Flores leaves behind a world she loves. Abandoning Earth forever to even the score, Andrea finds herself an outcast on the harsh planet Jod, where she fights to join an elite unit, the powerful and mysterious Tenebrea. With the universe on the brink of destruction, Andrea must survive against all odds until the day she can face her family's killers and taste the revenge for which she lives.

Andrea Flores has become one of the most valued agents of the Tenebrea, the elite fighting force of the star-spanning Alliance. Following the destruction of the Clone Welfare Institute run by the Cor Ordinate, Andrea is sent on a vital mission alongside her comrades, H'Roo Parh, a Jod; Tara Gullwing, a clone -- and Tara's lover, Eric, the clone of Andrea's dead husband. But Andrea has not forgotten her true reason for joining the Tenebrea: to take revenge on those responsible for the death of her husband and children -- Cor terrorists who mistook her husband for Eric. Now alongside a constant reminder of what she has lost, Andrea faces her greatest challenge yet...

On the planet Klamdara, several members of the elite fighting force of the Alliance known as the Tenebrea -- including their leader, Hal K'Rin -- are imprisoned, dying, and hoping for rescue. On the planet Cor, that hope resides in Andrea Flores, one of the Tenebrea's best operatives, and her ragtag group of wilderness clones. But Andrea has never lost sight of her true reason for joining the Tenebrea: to take revenge upon the murderers of her husband and daughter. However, the rescue of K'Rin leads Andrea to an awful truth that he is hiding about Andrea's past, one that will throw her quest for revenge into chaos! Andrea Flores's long, difficult road to avenge the deaths of her loved ones comes to a head in the shocking conclusion to the Tenebrea trilogy!

This introduction to hacking covers everything you need to know to start your own journey to becoming an ethical hacker. With help from a lab setup that lets you hack along to each chapter, this book walks you through a variety of the most useful activities for any hacker. You'll begin by capturing and viewing a victim's traffic, then learn how to encrypt files and fake emails, and craft sophisticated social engineering attacks. In the later chapters, you'll learn how to fuzz, write trojans and rootkits, and perform website exploitation. Along the way, you'll develop a fundamental understanding of technologies like network protocols, websites, and the Linux operating system. You'll also work with tools used by professional penetration testers, such as Metasploit and Wireshark, and go from setting up a virtual lab environment for small scale hacks that could take place in a coffee shop to expanding this skill in order to take over an extensive corporate network. This manual is a must for any programmer interested in learning the fundamentals of designing their own hacking tools. It takes a deep dive into many topics, but uses beginner-friendly explanations for those just starting out. Exercises at the end of each chapter help expand on what's learned.