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### default.html(section.main=current)
<h2>Research Themes</h2>
<p>
Our vision is to use <strong>mathematics to understand the nature of
computation</strong>, and to turn that understanding into
the <strong>next generation of programming languages</strong>.
<p>
We see the mathematical foundations of computation and programming as
inextricably linked. We study one so as to develop the other.
<p>
This reflects the symbiotic relationship between mathematics,
programming, and the design of programming languages — any attempt to
sever this connection will diminish each component.
<p>
To achieve these research goals we use ideas from the following
disciplines:
<dl>
<dt>Functional Programming</dt>
<dd>
What does the future of programming languages look like?
Functional programming languages
like <a href="http://www.haskell.org/">Haskell</a>, <a href="http://wiki.portal.chalmers.se/agda/pmwiki.php">Agda
2</a> and Epigram are currently at the apex of programming
language design and so form our target model of computation.
</dd>
<dt>Logic</dt>
<dd>
Why is functional programming successful as a model of
computation? The answer lies in its genesis as a clean
implementation of the logical structure of computation. Thus we
develop functional programming by studying the logical structure
of computation.
</dd>
<dt>Type Theory</dt>
<dd>
How does one take the logical structure of computation and turn it
into a programming abstraction? Type theory allows us to do this
by providing a language at an intermediate level of abstraction
between a programming language and its logical
foundations. Indeed, type theory could be said to be the ideas
factory for programming languages.
</dd>
<dt>Category Theory</dt>
<dd>
How does one understand structure abstractly? One uses category
theory—that's how! Ideas such as monads and initial algebra
semantics attest to the deep contribution that category theory has
made to computation.
</dd>
</dl>