Giant Raindrop

Citizens of Salem, we have a difficult challenge facing us. Just a few hours ago, we were all excited about the amount of rain we were going to receive. Now we realize we did get something hugea giant raindrop that is large enough to cover and enclose the entire town. The next few hours are critical for Salem. The best scientists in the country are attempting to solve the problem, but the problem is very big, and the time is short.

Make thunder in a can and lightning in a pan, watch the wind at work, learn snow facts and folklore and much, much more! In 10 easy-to-follow chapters, children in grades 1-4 are introduced to the many faces of weather, investigating their environment and making exciting discoveries along the way! Each chapter features indoor and outdoor learning opportunities from experiments and sky watching to discovery centers and extension activities. The hands-on learning tasks are accompanied by lively scientific facts, trivia and lore, and the unique format enables educators to connect weather themes to all areas of the curriculum. Here's a complete approach to learning that opens the doors to discovery and is guaranteed to make children "weather wise."

Human beings need to breathe oxygen diluted in certain quantity of inert gas for living. In the atmosphere, there is a gas mixture of, mainly, oxygen and nitrogen, in appropriate proportions. However, the air also contains other gases, vapours and aerosols that humans incorporate when breathing and whose composition and concentration vary spatially. Some of these are physiologically inert. Air pollution has become a problem of major concern in the last few decades as it has caused negative effects on human health, nature and properties. This book presents the results of research studies carried out by international researchers in seventeen chapters which can be grouped into two main sections: a) air quality monitoring and b) air quality assessment and management, and serves as a source of material for all those involved in the field, whether as a student, scientific researcher, industrialist, consultant, or government agency with responsibility in this area.

This book communicates some contemporary mathematical and statistical developments in river basin hydrology as they pertain to space-time rainfall, spatial landform and network structures and their role in understanding averages and fluctuations in the hydrologic water balance of river basins. While many of the mathematical and statistical nations have quite classical mathematical roots, the river basin data structure has led to many variations on the problems and theory.

What size and shapes are raindrops? Where do they come from? What happens when sea and air meet? These and many other questions take readers into the realms of meteorology, oceanography, physics, chemistry, and volcanology. "Packed with interesting and significant information." ? Florida Scientist. 57 photographs and illustrations.

Tom Brothers, widower, owns a hardscrabble cattle ranch in the foothills of Wyoming. The land controls Tom’s life, taking all he can give, offering little in return. THE DEER MOUSE follows him for ten culled days through the seasons of the year, as he and his son, TJ, struggle to make ends meet. Old Tom, sulky and brooding, and TJ, insecure, are constantly at each other in a sullen, running battle, neither one conscious of how their lives unfold in remarkably parallel ways, nor able to bring themselves to trust one another. Both want desperately to know that what they have given, and what they’ve lost, is worth something in the end. Their ruptured relationship profoundly affects the rest of the extended family in this rural isolation, and these wounds are further aggravated by the intrusion of Frank, a recently-hired man, who comes between TJ and his wife, Karen.

Published by the American Geophysical Union as part of the Geophysical Monograph Series, Volume 191. Rainfall: State of the Science offers the most up-to-date knowledge on the fundamental and practical aspects of rainfall. Each chapter, self-contained and written by prominent scientists in their respective fields, provides three forms of information: fundamental principles, detailed overview of current knowledge and description of existing methods, and emerging techniques and future research directions. The book discusses Rainfall microphysics: raindrop morphodynamics, interactions, size distribution, and evolution Rainfall measurement and estimation: ground-based direct measurement (disdrometer and rain gauge), weather radar rainfall estimation, polarimetric radar rainfall estimation, and satellite rainfall estimation Statistical analyses: intensity-duration-frequency curves, frequency analysis of extreme events, spatial analyses, simulation and disaggregation, ensemble approach for radar rainfall uncertainty, and uncertainty analysis of satellite rainfall products The book is tailored to be an indispensable reference for researchers, practitioners, and graduate students who study any aspect of rainfall or utilize rainfall information in various science and engineering disciplines.

PLEASE NOTE: This is a summary of the book and NOT the original book. What If? by Randall Munroe - A 30-minute Instaread Summary Inside this Instaread Summary: • Overview of the entire book • Introduction to the important people in the book • Summary and analysis of all the chapters in the book • Key Takeaways of the book • A Reader's Perspective Preview of this summary: Chapters 1-4 Global Windstorm. If the earth stopped spinning, but the air kept moving, supersonic winds would develop everywhere except near the poles. Half the earth would freeze while the other half would burn up. People would survive only in a few places, such as research stations at the South Pole. Cold water would churn up from the ocean depths, creating global cooling and tsunamis. Eventually, however, the moon, still rotating, would start moving toward Earth. The tidal energy of the moon would tug on Earth and start it spinning again. Relativistic Baseball. A baseball traveling at ninety percent of light speed would create a thermonuclear explosion as it came in contact with the air. Batter, catcher, ballpark and everything nearby would be destroyed. It would also happen so fast that everything would remain stationary. An MIT scientist who also simulated this, however, told Munroe that his result could not be duplicated. Spent Fuel Pool. Swimming in a pool of spent nuclear reactor fuel would not be fatal. A swimmer who does not dive down and touch a spent fuel rod would be exposed to less radiation than a person normally gets walking around. The water temperature would be slightly less than that of a hot tub. Workers actually swim in these pools to service them…