Rework targeted manuscript result tables

This commit is contained in:
Xin Wang
2026-09-24 15:11:14 +08:00
parent 82cd1b6abb
commit e09ee1c432
3 changed files with 155 additions and 26 deletions
+30 -14
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@@ -182,6 +182,9 @@ second, and (v) one OR-pooled aggregate-visible history. These conditions
never expose future activity, but their speech labels make them privileged
diagnostics, not deployable features or upper bounds.
\input{tables_compact}
% Historical full-precision table layouts retained as source audit only.
\iffalse
\begin{table*}[t]
\caption{Measured EasyCom screens (\%). Panel A: deployable models; Panel B:
three-seed privileged past-activity audit, which is not deployable. Mean is
@@ -270,6 +273,7 @@ Completed blocks + observed tail & 70.85 & 59.17 & -- \\
\end{tabular}
\end{table*}
\fi
\begin{table}[t]
\caption{Pending paired $\G\rightarrow\G+\A$ transfer (unmeasured).
EC is EasyCom; MiniCPM first needs readout/refresh/history audits.}
@@ -467,7 +471,7 @@ shared GRU, while head capacity and training batch differ; raw boundary
metrics and repeat seeds are unavailable. Thus the +0.66/+0.43-point
difference does not isolate visual motion or floor behavior.
Table~\ref{tab:main}, panel B, locates the missing information. Aggregate visible
Table~\ref{tab:oracle} locates the missing information. Aggregate visible
activity improves over the audio baseline by 4.826 points at 0.2~s and 1.775
mean-mAP points. Visibility alone changes mean mAP by only +0.040, and
one-second-delayed activity by +0.164. Thus availability or extra parameters
@@ -495,16 +499,31 @@ behavioral improvement is asserted by this placeholder.}
\subsection{Chunk Timing and Cross-Dataset Limits}
Table~\ref{tab:stream_context}, panel B, reports a separate global-only
Table~\ref{tab:chunk} reports a separate global-only
chunk-construction screen. Non-native 200-ms commits exceed native 2-s hold
at 0.2~s (67.05 versus 59.62\% mAP), but use 95,453 rather than 9,539
processor calls over 12 sessions. Completed blocks plus observed tail reach
70.85\%; that older bank is not extraction-matched. Freshness and chunk
construction vary together, so this is motivation for, not evidence of, an
isolated PTR benefit or real-time throughput. Panel A reserves the matched
tail $\times$ audio and context-cap tests. Tables~\ref{tab:backbone}--
isolated PTR benefit or real-time throughput. Table~\ref{tab:stream_context}
reserves the matched tail $\times$ audio and context-cap tests.
Tables~\ref{tab:backbone}--
\ref{tab:efficiency} reserve backbone, hard-slice, and cost analyses; the
cutoff-marked H/Q case in Fig.~\ref{fig:hq_cases} remains unmeasured.
\textbf{Historical LoRA diagnostic.}
A single-run EasyCom 8-s/2-FPS screen used sparse training anchors (1~Hz,
plus 5~Hz near transitions) and dense 5-Hz evaluation. Within that legacy
pipeline, strict mean mAP was 58.17\% for a frozen dense-cache control,
57.21\% for frozen sparse training, and 56.21\% for a separate three-epoch
Thinker-LoRA run initialized from a trained frozen head. An epoch-1 LoRA
weights-only continuation fell to 54.21\% after optimizer/scheduler reset.
Sparse frozen training is 0.96 points below the dense control; the separate
LoRA run is another 1.01 below sparse frozen, but the epoch budgets differ.
Sparse-train/dense-test mismatch and the optimizer reset are possible, not
isolated, explanations.
Missing remote raw metrics, matched seeds, and feature equivalence make this
a negative recipe diagnostic, not a Table~\ref{tab:main} $\G+\A$ comparison
or proof that LoRA is inherently harmful.
Ego4D has no archived test metrics in this checkout, so transfer cannot yet
be claimed. The oracle uses privileged labels, provided boxes omit online
detection, and aggregate others cannot establish addressee or semantic floor
@@ -512,16 +531,13 @@ ownership.
\subsection{Decision Rules and Reproducibility}
Comparisons require identical physical cutoffs and future targets. New runs
must archive source timestamps, common valid-pair counts, seeds, per-session
AP, trainable counts, revisions, checkpoints, and predictions; correlated
frames are not independent replicates. The matched matrix keeps a fixed
four-epoch recipe, with selection rules frozen on training-side evidence.
Sessions~1--3 have already been inspected, so repeat seeds remain exploratory.
Raw endpoint AP is not one-event-one-vote ENTRY/YIELD: response windows must
be censored at the next other onset and yield windows at the next other
offset. Until that evaluator passes a real-timeline audit, we report dense
forecasting and endpoint anticipation only.
Matched comparisons require identical cutoffs and targets; archive source
timestamps, valid-pair counts, seeds, per-session AP, trainable counts, and
checkpoint/processor revisions. The fixed recipe and selection rules use
training-side evidence only. Already inspected test sessions make repeat
seeds exploratory. Raw endpoint AP is not one-event-one-vote ENTRY/YIELD:
response windows must end at the next other onset, and yield windows at the
next other offset. Behavioral claims await a real-timeline evaluator audit.
\section{Conclusion}