Weitere Bücher, die Sie mögen werden

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  Invention and Innovation - A...

  Vaclav Smil

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  The world is never finished catching up with Vaclav Smil. In his latest and perhaps most readable book, Invention and Innovation, the prolific author—a favorite of Bill Gates—pens an insightful and fact-filled jaunt through the history of invention.  
   
  Impatient with the hype that so often accompanies innovation, Smil offers in this book a clear-eyed corrective to the overpromises of new inventions—from cures for diseases to AI. He reminds us that even after we go quite far along the invention-development-application trajectory, we  
  may never get anything real to deploy. Or worse, even after we have succeeded by introducing an invention, its future may be marked by underperformance, disappointment, demise, or outright harm. 
   
  Drawing on his vast breadth of scientific and historical knowledge, Smil explains the difference between invention and innovation, and looks not only at inventions that failed to dominate as promised (such as the airship, nuclear fission, and supersonic flight) but also at those that turned  
  disastrous (leaded gasoline, DDT, and chlorofluorocarbons). And finally, he offers a “wish list” of inventions that we most urgently need to confront the staggering challenges of the twenty-first century. 
   
  Filled with engaging examples and pragmatic approaches, this book is a sobering account of the folly that so often attends human ingenuity—and how we can, and must, better align our expectations with reality.

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  Mathematical Physics - Advanced...

  Mark Hedges

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  Mathematical physics serves as the foundation for expressing and solving physical problems using rigorous mathematical structures and techniques. The discipline of mathematical physics bridges the gap between abstract mathematical theories and physical phenomena, providing a formal framework through which the laws of nature are defined, analyzed, and interpreted. The foundations of mathematical physics rest on several key mathematical structures, including calculus, linear algebra, differential equations, and complex analysis. These mathematical tools are essential for formulating physical theories, predicting experimental outcomes, and uncovering deeper insights into the nature of the physical world. 
  One of the fundamental mathematical tools in physics is calculus, which provides the framework for describing the motion of objects, the behavior of fields, and the change of physical quantities over time and space. Newton and Leibniz independently developed the principles of differential and integral calculus, which allowed for the precise formulation of classical mechanics and gravitation. Differential calculus deals with rates of change and slopes of curves, which are essential in defining velocity, acceleration, and force. Integral calculus, on the other hand, is used to calculate areas under curves and accumulated quantities, such as work and potential energy.

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  Mastering Scrum Master...

  Jimmy Mathew

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  Mastering Scrum Master Interviews: 200 Situational Questions and Answers. 
  Practical Insights and Expert Answers for Tackling Scrum Master Role Interviews. 
  This book is designed to help you excel in Scrum Master role interviews by providing 200 carefully curated situational questions along with detailed answers. Each question addresses real-world scenarios that Scrum Masters often face, covering key challenges related to team dynamics, stakeholder engagement, Agile transformation, and organizational change. With comprehensive explanations, this course empowers you to understand the logic behind each answer, helping you build your own personalized responses during interviews. Whether you're an aspiring Scrum Master or looking to refine your interview skills, this course equips you with the insights needed to succeed. 
  A few things to keep in mind: there is often no single correct answer to these questions. The responses provided here are based on personal experience, but interviewers may have different perspectives shaped by their own challenges and background. The goal is not to memorize exact answers but to understand the logic and reasoning behind them so that you can adapt and craft your responses during the interview. 
  We've provided detailed answers to give you a range of ideas to draw from, allowing you to build a solid answer even if you only recall a few key points during the interview. Now, let’s dive into the questions.

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  Statistical Physics - The...

  Mark Hedges

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  Statistical mechanics is the branch of physics that applies probability theory and statistics to describe the behavior of systems with a large number of particles. It provides a framework for understanding macroscopic phenomena in terms of the microscopic properties of individual particles. The central goal of statistical mechanics is to connect the microscopic world of atoms and molecules with the macroscopic world of thermodynamic variables like temperature, pressure, and volume. 
  Historically, statistical mechanics emerged in the 19th century as scientists sought to explain the observed laws of thermodynamics, which describe the behavior of systems in equilibrium. Classical thermodynamics, while incredibly successful, was primarily phenomenological and lacked a fundamental microscopic understanding. This gap was filled by the development of statistical mechanics, largely attributed to the works of Ludwig Boltzmann, James Clerk Maxwell, and Josiah Willard Gibbs. 
  At its core, statistical mechanics is based on the idea that the behavior of macroscopic systems can be understood by considering the collective behavior of their microscopic constituents. Instead of directly tracking every particle, which is practically impossible for large systems, statistical mechanics calculates the statistical properties of the system. These properties are derived from the laws of probability

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  Galactic Ghosts - How Dark...

  Dirk Fallon

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  Dark matter is one of the greatest mysteries in modern science. Despite being invisible and undetectable by traditional means, it makes up approximately 27% of the universe’s total mass and energy. It does not emit, absorb, or reflect light, making it completely transparent to current observational instruments. However, scientists are certain of its existence due to its gravitational effects on visible matter, radiation, and the large-scale structure of the universe. Its discovery has led to a major shift in our understanding of the cosmos, revealing that most of the universe’s matter remains hidden from our view. 
  The term "dark matter" was first introduced in the early 20th century, but it wasn’t until the 1970s that astronomers began to recognize its significant role in the universe. In 1933, Swiss astronomer Fritz Zwicky observed the motion of galaxies within clusters and noted that the amount of visible matter in these clusters was insufficient to account for their observed gravitational effects. This led him to propose the existence of an unseen form of matter, which he referred to as "dark matter." Over the following decades, similar observations were made by astronomers studying the rotation of individual galaxies. The rotation speeds of galaxies were found to be much higher than what could be explained by the visible matter in the galaxies. This discrepancy suggested that there was additional, unseen matter providing extra gravitational pull, keeping the galaxies intact and preventing them from flying apart. 
  Dark matter does not interact with light or other forms of electromagnetic radiation, which is why it cannot be directly observed. It’s not made up of the usual atoms and particles that constitute the familiar matter we see in everyday life. Instead, it seems to consist of particles that do not interact with electromagnetic forces, which is why they are invisible.

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  Harnessing the Sun: Mastering...

  Laura Thompson

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  You can achieve energy independence through solar power by following the steps outlined in the book "Harnessing the Sun: Mastering Off-Grid Solar Power Systems: Building Independence with Sustainable Solar Solutions." If you are looking for a reliable backup for power outages, a distant lodge, or a sustainable farm, this book will give you everything you need to design, build, and operate an off-grid solar power system. 
  In the book "Harnessing the Sun," the author begins by providing an explanation of the fundamentals of solar energy, including the science underlying solar energy, the important components of an off-grid system, and the practical procedures for determining your energy requirements. To construct a system that is personalized to your particular needs, you will learn how to select the appropriate solar panels, batteries, inverters, and other components. Through the provision of lucid instructions on installation and ongoing maintenance, this book equips you with the ability to successfully manage your system in order to achieve outstanding performance. 
  "Harnessing the Sun" goes into the lifestyle benefits of living off the grid, going beyond the technical specifics of the topic. Resilience and sustainability can be achieved through the use of solar electricity, which offers a number of benefits, including a reduced impact on the environment and increased self-sufficiency. This book will be your reliable travel companion on the path to clean, renewable energy independence, regardless of whether you are a novice to solar energy or looking to enhance your expertise.

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