We use concepts from chaos theory in order to model
nonlinear dynamical systems that exhibit deterministic behavior.
Observed time series from such a system can be embedded
into a higher dimensional phase space without the
knowledge of an exact model of the underlying dynamics.
Such an embedding warps the observed data to a strange
attractor, in the phase space, which provides precise information
about the dynamics involved. We extract this information
from the strange attractor and utilize it to predict
future observations. Given an initial condition, the predictions
in the phase space are computed through kernel
regression. This approach has the advantage of modeling
dynamics without making any assumptions about the exact
form (linear, polynomial, radial basis, etc.) of the mapping
function. The predicted points are then warped back to the
observed time series. We demonstrate the utility of these
predictions for human action synthesis, and dynamic texture
synthesis. ...