The creator of the Barcelona Pavilion (1929), the Farnsworth House in Plano, Illinois (1945?1951) and the Seagram Building in New York (1954?1958), Mies was one of the founders of a new architectural style. Well known for his motto ?less is more, ? he sought a kind of refined purity in architectural expression that was not seen in the reduced vocabulary of other Bauhaus members. His goal was not simply building for those of modest income (Existenzminimum) but building economically in terms of sustainability, both in a technical and aesthetical way; the use of industrial materials such as steel and glass were the foundation of this approach. Though the extreme reduction of form and material in his work garnered some criticism, over the years many have tried?mostly unsuccessfully?to copy his original and elegant style. This book explores more than 20 of his projects between 1906 and 1967, from his early work around Berlin to his most important American buildings. Basic Architecture features: ? Each title contains approximately 120 images, including photographs, sketches, drawings, and floor plans ? Introductory essays explore the architect's life and work, touching on family and background as well as collaborations with other architects ? The body presents the most important works in chronological order, with descriptions of client and/or architect wishes, construction problems (why some projects were never executed), and resolutions ? The appendix includes a list of complete or selected works, biography, bibliography and a map indicating the locations ofthe architect's most famous buildings

    

    Just read this till the end You don’t have to buy this book. Just read this till end & you will learn something that will change the way you do math forever. Warning: I am revealing this secret only to the first set of readers who will buy this book & plan to put this secret back inside the book once I have enough sales. So read this until the very end while you still can.School taught you the wrong way to do mathThe way you were taught to do math, uses a lot of working memory. Working memory is the short term memory used to complete a mental task. You struggle because trying to do mental math the way you were taught in school, overloads your working memory. Let me show you what I mean with an example:Try to multiply the 73201 x 3. To do this you multiply the following:1 x 3 =0 x 3 =2 x 3 =3 x 3 =7 x 3 =This wasn’t hard, & it might have taken you just seconds to multiply the individual numbers. However, to get the final answer, you need to remember every single digit you calculated to put them back together. It takes effort to get the answer because you spend time trying to recall the numbers you already calculated. Math would be easier to do in your head if you didn’t have to remember so many numbers. Imagine when you tried to multiply 73201 x 3, if you could have come up with the answer, in the time it took you to multiply the individual numbers. Wouldn’t you have solved the problem faster than the time it would have taken you to punch in the numbers inside a calculator? Do the opposite of what you were taught in schoolThe secret of doing mental math is to calculate from left to right instead of from right to left. This is the opposite of what you were taught in school. This works so well because it frees your working memory almost completely. It is called the LR Method where LR stands for Left to Right.Lets try to do the earlier example where we multiplied 73201 x 3. This time multiply from left to right, so we get:7 x 3 = 213 x 3 = 93 x 2 = 60 x 3 = 03 x 1 = 3Notice that you started to call out the answer before you even finished the whole multiplication problem. You don’t have to remember a thing to recall & use later. So you end up doing math a lot faster. The Smart ChoiceYou could use what you learnt & apply it to solve math in the future. This might not be easy, because we just scratched the surface. I've already done the work for you. Why try to reinvent the wheel, when there is already a proven & tested system you can immediately apply. This book was first available in video format & has helped 10,000+ students from 132 countries. It is available at ofpad.com/mathcourse to enroll. This book was written to reach students who consume the information in text format. You can use the simple techniques in this book to do math faster than a calculator effortlessly in your head, even if you have no aptitude for math to begin with.Imagine waking up tomorrow being able to do lightning fast math in your head. Your family & friends will look at you like you are some kind of a genius. Since calculations are done in your head, you will acquire better mental habits in the process. So you will not just look like a genius. You will actually be one. Limited Time BonusWeekly training delivered through email for $97 is available for free as a bonus at the end of this book for the first set of readers. Once we have enough readers, this bonus will be charged $97. Why Price Is So LowThis book is priced at a ridiculous discount only to get our first set of readers. When we have enough readers the price will go up.

    Far from a dry, nuts-and-bolts exposition, however, 101 THINGS I LEARNED® IN ENGINEERING SCHOOL probes real-world examples to show how the engineer's way of thinking can-and sometimes cannot-inform our understanding of how things work. Questions from the simple to the profound are illuminated throughout: Why shouldn't soldiers march across a bridge? Why do buildings want to float and cars want to fly? What is the difference between thinking systemically and thinking systematically? How can engineering solutions sympathize with the natural environment? Presented in the familiar, illustrated format of the popular 101 THINGS I LEARNED® series, 101 THINGS I LEARNED® IN ENGINEERING SCHOOL offers an informative resource for students, general readers, and even experienced engineers, who will discover within many provocative new insights into familiar principles.

    One of the most celebrated living architects, Ando is best known for crafting serenely austere structures that fuse Japanese building traditions with Western modernism. His minimalist masterworks-geometric forms clad in silky-smooth exposed concrete-are suffused with natural light and set in perfect harmony with the landscape. In these highlights from lectures delivered at the University of Tokyo's Graduate School of Architecture, Ando candidly describes his experiences as a largely self-taught practitioner, tracing his development from an early interest in the traditional building craft of his native Japan through his political awakening in the turbulent 1960s to his current stature as one of the world's foremost architects. In addition to exploring his aesthetic influences and working process, Ando offers students a road map not only for maintaining professional integrity, but also for becoming effective agents of change in the world.

    His Incompleteness Theorem turned not only mathematics but also the whole world of science and philosophy on its head. Equally legendary were Gö's eccentricities, his close friendship with Albert Einstein, and his paranoid fear of germs that eventually led to his death from self-starvation. Now, in the first popular biography of this strange and brilliant thinker, John Casti and Werner DePauli bring the legend to life. After describing his childhood in the Moravian capital of Brno, the authors trace the arc of Gö's remarkable career, from the famed Vienna Circle, where philosophers and scientists debated notions of truth, to the Institute for Advanced Study in Princeton, New Jersey, where he lived and worked until his death in 1978. In the process, they shed light on Gö's contributions to mathematics, philosophy, computer science, artificial intelligence -- even cosmology -- in an entertaining and accessible way.

    Dana Mackenzie starts from the opposite premise: He celebrates equations. No history of art would be complete without pictures. Why, then, should a history of mathematics -- the universal language of science -- keep the masterpieces of the subject hidden behind a veil?"The Universe in Zero Words" tells the history of twenty-four great and beautiful equations that have shaped mathematics, science, and society -- from the elementary (1+1 = 2) to the sophisticated (the Black-Scholes formula for financial derivatives), and from the famous (E = mc^2) to the arcane (Hamilton's quaternion equations). Mackenzie, who has been called a "popular-science ace" by Booklist magazine, lucidly explains what each equation means, who discovered it (and how), and how it has affected our lives.(From the jacket copy.)Note: The Princeton University Press version (black cover) is for sale in the English-speaking world outside Australia. The Newsouth Press version (blue cover) is for sale in Australia. The two versions are identical except for the covers.

    Yet Eli Maor argues that music has influenced math at least as much as math has influenced music. Starting with Pythagoras, proceeding through the work of Schoenberg, and ending with contemporary string theory, Music by the Numbers tells a fascinating story of composers, scientists, inventors, and eccentrics who played a role in the age-old relationship between music, mathematics, and the sciences, especially physics and astronomy. Music by the Numbers explores key moments in this history, particularly how problems originating in music have inspired mathematicians for centuries. Perhaps the most famous of these problems is the vibrating string, which pitted some of the greatest mathematicians of the eighteenth century against each other in a debate that lasted more than fifty years and that eventually led to the development of post-calculus mathematics. Other highlights in the book include a comparison between meter in music and metric in geometry, complete with examples of rhythmic patterns from Bach to Stravinsky, and an exploration of a suggestive twentieth-century development: the nearly simultaneous emergence of Einstein's theory of relativity and Schoenberg's twelve-tone system.Weaving these compelling historical episodes with Maor's personal reflections as a mathematician and lover of classical music, Music by the Numbers will delight anyone who loves mathematics and music.

    This text provides a simple and straightforward introduction to econometrics for the beginner. The book is designed to help students understand econometric techniques through extensive examples, careful explanations, and a wide variety of problem material. In each of the editions, I have tried to incorporate major developments in the field in an intuitive and informative way without resort to matrix algebra, calculus, or statistics beyond the introductory level. The fourth edition continues that tradition.

    You can use these ideas and methods as-is, or better yet, tweak them and create your own enticing educational meals. The message the authors share is that, with imagination and preparation, every teacher can be a Classroom Chef.

    A photographic exploration of Japanese architecture and design in size-constricted areas explores imaginative, ingenious, and revolutionary solutions to space-compromised living.

    In this book, Mari Grinde Arntzen asks how and why this is—how can fashion simultaneously attract us to its glamour and repel us with its superficiality and how being called “fashionable” can be at once a compliment and an insult. Arntzen guides us through the major figures and brands of today’s fashion industry, showing how they shape us and in turn why we love to be shaped by them. She examines both everyday, affordable “fast fashion” brands, as well as the luxury market, to show how fashion commands a powerful influence on every socioeconomic level of our society. Stepping into our closets with us, she thinks about what happens when we get dressed: why fashion can make us feel powerful, beautiful, and original at the same time that it forces us into conformity. Stripping off the layers of the world’s fifth largest industry, garment by garment, she holds fashion up as a phenomenon, business, and art, exploring the questions it forces us to ask about the body, image, celebrity, and self-obsession. Ultimately, Arntzen asks the most direct question: what is fashion? How has it taken such a powerful hold on the world, forever propelling us toward its concepts of beauty?

    The book provides not only amusement, but a commentary on how America has changed, and a celebration of those places that have been forgotten by conventional history.

    It provides a simple, thorough survey of elementary topics, starting with set theory and advancing to metric and topological spaces, connectedness, and compactness. 1975 edition.

    This is a great how to draw book for kids!In this beginners drawing book, every mini drawing lesson is broken down into easy to follow step by step instructions.Let your kids learn to draw because kids that draw:✅ Develops Fine Motor Skills✅ Encourages Visual Analysis✅ Helps Establish Concentration✅ Improves Hand-Eye Coordination✅ Increases Individual Confidence✅ Teaches Creative Problem SolvingThis learn to draw books for kids is perfect for kids 09 - 12, but also for kids age 04 - 08 with a high interest in drawing will be able to follow the instructions easily as well.This How to Draw Anime: Step by Step beginners drawing for kids is the only sketch book for kids you'll need to turn your kids' creativity into artistic confidence, by having them learn how to draw cool stuff!