A high-resolution version for printing - CP3-Origins
A high-resolution version for printing - CP3-Origins
A high-resolution version for printing - CP3-Origins
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The Revolutions to Come<br />
Mankind’s greatest achievements have come from the curiosity to know how the world works.<br />
Everything we see and even things we do not see are combinations of a handful of elementary<br />
particles. We live in a particle universe. Imminent explorations of the innermost structure of<br />
nature will soon lead to unprecedented heights in scientific discovery, invention and technological<br />
advancement. The Large Hadron Collider (LHC)<br />
at CERN is the most ambitious scientific experiment in<br />
the world and will set the agenda <strong>for</strong> particle physics<br />
<strong>for</strong>, at least, the next decade. It will accelerate two beams<br />
of protons in opposite directions around a 27km underground<br />
tunnel, until they reach almost the speed of<br />
light. The particles will then be collided creating energies<br />
<strong>high</strong>er than ever be<strong>for</strong>e.<br />
We aim to exploit experimental results, supercomputers<br />
and our theoretical expertise to make the next big leap in<br />
particle physics:<br />
Uncovering the Origin of Mass of all elementary particles.<br />
We will also contribute in other equally relevant quests: understanding the phase diagram of<br />
strongly interacting theories and the origin of bright and dark matter in the universe.<br />
Our current understanding of nature fails to explain the origin of dark matter or why matter<br />
dominates over antimatter, i.e. why there is something rather than nothing in the universe. The<br />
origin of mass problem is intimately connected to these fundamental questions, making it a central<br />
problem in physics.<br />
To achieve our overarching goals we will :<br />
Dark Energy<br />
74%<br />
Atoms<br />
4%<br />
Dark Matter<br />
22%<br />
Unite the most relevant strategic areas of research in particle physics phenomenology from<br />
model building to flavour physics and strong interactions.<br />
Gather experts with complementary abilities and provide a competitive and vibrant scientific<br />
environment.<br />
Use the modern theoretical means <strong>for</strong> describing and understanding experimental results as<br />
well as making sensible phenomenological predictions.<br />
Construct original and scientifically sound extensions of the Standard Model and test them<br />
against experimental results.<br />
Develop novel tools of direct relevance to the LHC physics and more generally to understand<br />
complex dynamics.<br />
Use our relations with leading international centres of excellence and universities possessing<br />
complementary skills and scientific knowledge.<br />
CP³-Black book 1