Arndol's ordinary differential equation

In summary, there are two English versions of this book available, one from MIT press and one from Springer-Verlag. They are both translations of the Russian editions, with the MIT Press version being the first edition and the Springer-Verlag version being the third edition. They have different translators and some differences in wording, but are otherwise similar. The third edition has some reworked passages and new material, but is not significantly different from the first edition. Both versions are highly praised by the reviewer, who also recommends other works by the author.
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  • #2
anyone know anything?
 
  • #3
heres a refview from amazon.com:

Reviewer: A reader
Be aware there are 2 versions of this book
available in English; this one from MIT press
is (contrary to one of the reviews above) is
translated from the *first* Russian edition;
there is another version from Springer-Verlag
translated from the *third* Russian edition.
They're translated by different people so
some wording etc is different but otherwise
they're similar, though not identical. The
later edition has some reworked passages
and modest amount of new material, but it's
not a hugely different book.
Both are excellent, are are all the other
books & papers I've seen by V.I. Arnol'd.
 

What is Arndol's ordinary differential equation?

Arndol's ordinary differential equation is a mathematical expression used to describe the relationship between a function and its derivative. It is typically written in the form of dy/dx = f(x), where y is the dependent variable and x is the independent variable.

Who is Arndol and why is this equation named after them?

Arndol is not a specific person, but rather a placeholder name used in mathematics to represent a generic individual. This equation is named after them to honor the contributions of all mathematicians who have studied and worked with ordinary differential equations.

What are some real-world applications of Arndol's ordinary differential equation?

This equation is commonly used in physics, engineering, and other scientific fields to model various physical phenomena, such as heat transfer, population growth, and chemical reactions.

How is Arndol's ordinary differential equation solved?

There is no general method for solving this equation, as it depends on the specific form of the function f(x). However, there are various techniques and algorithms that can be used to find solutions, such as separation of variables, substitution, and numerical methods.

Can Arndol's ordinary differential equation be used for more complex systems?

Yes, this equation can be extended to describe systems with multiple dependent variables and higher-order derivatives. It can also be combined with other mathematical tools, such as partial differential equations, to model more complex systems.

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