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Books > Science & Mathematics > Astronomy, space & time
Following one of the most inspiring and fascinating stories linked
to the Royal Observatory, Greenwich, this book centres on the life
and achievements of John Harrison - designer and builder of the
first accurate marine chronometers. Inspired by the official prize
offered in 1714 to anyone who could solve the problem of finding
longitudinal position at sea, Harrison produced his four famous 'H'
timepieces. In doing so, he helped revolutionise sea travel, saving
many thousands of lives. John Harrison and the Quest for Longitude
is the intriguing account of one man driven by the need to solve
one of the greatest practical problems of his time.
Informed by astronomy education research, the Sixth Edition
reflects an emphasis on learning by doing. This emphasis is
reinforced through thoughtful pedagogy and an innovative teaching
and learning package. Students get to interact with astronomy while
instructors receive the resources they need to incorporate active
learning into the classroom.
Die skrywer se doelstelling met hierdie publikasie is om die beginsels van sterrekunde toeganklik te maak vir almal, om ‘n teks daar te stel wat bruikbare toeligting vir die amateursterrekundige is en kan dien as voorbereiding vir verdere studie in die sterrekunde.
Van Zyl se eenvoudige, onderhoudende skryfstyl dra verder by tot die boek se toeganklikheid vir sterrekundiges sowel as leke met ‘n besondere belangstelling in die heelal. Deurgaans word gepoog om te verduidelik hoe sterrekundiges te werk gaan. Om begrip te vergemaklik, verskyn ook 11 bladsye bylaes waarin die wiskunde wat gebruik word uit grondbeginsels herlei word. Dit bevat gedetailleerde beskrywings en verduidelikings van die heelal se geheime.
Inligting oor nuwe ontdekkings en teoriee, kleurvolle diagramme en foto’s verhoog die waarde.
Does science deny God? Did the Universe and life appear by chance
or is there evidence of a bigger scheme of thing behind them? In
this context, I am concerned with answering these questions. This
problem is addressed using knowledge in cosmology, physics and
biology. The initial part describes the stages of the 'Genesis'
according to physical cosmology from the Big Bang to the appearance
of life on Earth. It will touch on problems of why the universe is
dominated by matter, the theory of inflation, the limits of our
knowledge on the early Universe, the lack of a theory that can
allow us to study the phases immediately after the Big Bang, the
relation between the concepts of quantum mechanics and the
existence of God. It shows how the Universe is finely regulated,
that is, the physical constants have been chosen so that life
appears in the Universe. The regulation is so strong that we are
forced to think the existence of a great designer who has created a
particular Universe like the one we are observing. This conclusion
can be avoided only if there is an infinity of universes, a
multiverse. We ask ourselves if science can create the Universe
from nothing and using the same arguments of cosmologists such as
Krauss (author of The Universe from Nothing). It is now known that
the current science does not allow the creation of a Universe from
absolutely nothing. Physics and cosmology do not deny God. Indeed,
the argument of the fine adjustment of constants is strongly
indicative of the existence of a great designer. Other evidence
confirming this comes from biology. Thousands of experiments in
recent decades highlight the impossibility of generating life in
the laboratory. There is an intrinsic order in life encoded in DNA
that is not present in experiments. Simple calculations show that
the 'blind and aimless' evolution described by neo-Darwinists such
as Dawkins does not allow the generation of life.
Learn about the Earth and the Moon with this engaging science
reader. With easy-to-read text, this book teaches students
important scientific concepts and vocabulary including the phases
of the Moon, the movement of the Earth around the sun, and the
rotation of the Earth. Aligned to state and national standards, the
book contains nonfiction text features like an index, a glossary,
captions, bold font, and detailed images to keep students connected
to the text. A hands-on science experiment helps students apply
what they have learned and develops critical thinking skills.
Aimed at the senior undergraduate and graduate level, this textbook
fills the gap between general introductory texts offering little
detail and very technical, advanced books written for
mathematicians and theorists rather than experimentalists in the
field.
The result is a concise course in atmospheric radiative processes,
tailored for one semester. The authors are accomplished researchers
who know how to reach their intended audience and provide here the
content needed to understand climate warming and remote sensing for
pollution measurement. They also include supplementary reading for
planet scientists and problems.
Equally suitable reading for geophysicists, physical chemists,
astronomers, environmental chemists and spectroscopists.
A solutions manual for lecturers will be provided on
www.wiley-vch.de/supplements.
From renowned physicist Fred Alan Wolf comes his enthralling and
accessible exploration of parallel universes and the various
theories surrounding them.In this "enthralling read" (Publishers
Weekly), travel through the frontiers of space as physicist Fred
Alan Wolf guides you through the complex yet intruging concept of
parallel universes. Challenge your preceptions of the universe and
explore ideas as varied as superspace theater and zero-time ghosts
and even explore a future where time travel is real and black holes
are gateways rather than endings.
The universe is pervaded by particles with extreme energies,
millions of times greater than we can produce on Earth. They have
been a mystery for over a century. Now, current and future
experiments in particle astrophysics are leading us to answers to
the most fundamental questions about them. How does nature
accelerate the highest energy particles in the universe? Do new
interactions between them occur at such extreme energies? Are there
unknown aspects of spacetime that can be uncovered by studying
these particles?This book brings together three fields within
'extreme astronomy': ultra-high-energy cosmic ray physics, neutrino
astronomy, and gamma-ray astronomy, and discusses how each can help
answer these questions. Each field is presented with a theoretical
introduction that clearly elucidates the key questions scientists
face. This is followed by chapters that discuss the current set of
experiments - how they work and their discoveries. Finally, new
techniques and approaches are discussed to solve the mysteries
uncovered by the current experiments.
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