  We prove global in time well-posedness for perturbations of the 2D stochastic
Navier-Stokes equations
  \begin{equation*}
  \partial_t u + u \cdot \nabla u = \Delta u - \nabla p + \zeta + \xi
  \;, \quad u (0, \cdot) = u_{0}(\cdot) \;, \quad
  \mathrm{div} (u) = 0 \;,
  \end{equation*}
  driven by additive space-time white noise $ \xi $, with perturbation $ \zeta
$ in the H\"older-Besov space $\mathcal{C}^{-2 + 3\kappa} $, periodic boundary
conditions and initial condition $ u_{0} \in \mathcal{C}^{-1 + \kappa} $ for
any $ \kappa >0 $. The proof relies on an energy estimate which in turn builds
on a dynamic high-low frequency decomposition and tools from paracontrolled
calculus. Our argument uses that the solution to the linear equation is a $
\log$-correlated field, yielding a double exponential growth bound on the
solution. Notably, our method does not rely on any explicit knowledge of the
invariant measure to the SPDE, hence the perturbation $ \zeta $ is not
restricted to the Cameron-Martin space of the noise, and the initial condition
may be anticipative. Finally, we introduce a notion of weak solution that leads
to well-posedness for all initial data $u_{0}$ in $ L^{2} $, the critical space
of initial conditions.
