  The well known argument of Page and Wootters demonstrates how to "derive" the
usual quantum dynamics of a subsystem in a global state which is an eigenstate
of the total Hamiltonian. I show how the same argument can be made in classical
physics, by using a formalism that closely resembles the quantum one. This is
not surprising since the Hamilton-Jacobi formulation of classical dynamics is
precisely motivated by the logic of timeless dynamics. Ultimately, the key to
obtaining dynamics without dynamics is the principle of energy conservation
which leads to correlations between times pertaining to different subsystems.
The same can, of course, be said about all other conserved quantities and we
show how to address this problem in its full generality so as to realise
rotation without rotation, translation without translation and so on. The
classical and quantum interpretations do, however, have one major difference
and this is the Church of the Higher Hilbert Space interpretation of mixtures,
which only exists in quantum physics. We discuss a few consequences of this
point.
