Program
Continuation is treated as an anatomy, not a single norm.
Paper I establishes the structural consequences of finite maximal lifespan: bounded kinetic energy, eventual H² divergence, escape beyond every prescribed spectral cutoff, positive-scale regularity, and collapse of uniform continuation reserve.
Paper II resolves that anatomy more finely. It tracks transfer through finite annuli, terminal nonlinear H² work, and the synchronized failure of nonendpoint continuation criteria. The result is a more explicit description of how regularity can leave every finite control surface while energy remains finite.
Paper III reaches the scale-invariant L³ endpoint. It proves that bounded terminal L³ prevents finite-time breakdown, so a finite maximal trajectory must exhibit unbounded terminal L³ limsup. The proof architecture moves through terminal magnification, intrinsic restart, ancient-limit recovery, and rigidity.
What structure must remain available for a strong solution to continue, and what exact geometry is forced when that continuation reserve disappears?