Committed-energy release threshold: a streaming aspiration whose committed
prefix already carries at least this fraction of its total self-energy is
visually close enough to its complete self to swap in — regardless of raw
counts. Energy-ordered ladders front-load energy, so this releases far
earlier than count crossover: measured on real microscopy (h2afva vrefit),
committed counts cross only ~2 chunks from the ladder END on legacy
shared-base ladders, while e(k) passes 0.6 mid-ladder (and at chunk 1-2 on
sibling-aware ladders, which size their first chunk for exactly this).
Counts compare apples to oranges across substitutive levels; the energy
fraction is the additive orderer's own criterion. Applied only on an UPGRADE
(finer aspiration than the held level); on a downgrade the fraction is of an
already-coarser level, so releasing early would dip below the held finer
level — see shouldHoldPreviousDisplay's isUpgrade guard.
Committed-energy release threshold: a streaming aspiration whose committed prefix already carries at least this fraction of its total self-energy is visually close enough to its complete self to swap in — regardless of raw counts. Energy-ordered ladders front-load energy, so this releases far earlier than count crossover: measured on real microscopy (h2afva vrefit), committed counts cross only ~2 chunks from the ladder END on legacy shared-base ladders, while e(k) passes 0.6 mid-ladder (and at chunk 1-2 on sibling-aware ladders, which size their first chunk for exactly this). Counts compare apples to oranges across substitutive levels; the energy fraction is the additive orderer's own criterion. Applied only on an UPGRADE (finer aspiration than the held level); on a downgrade the fraction is of an already-coarser level, so releasing early would dip below the held finer level — see shouldHoldPreviousDisplay's
isUpgradeguard.