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This paper investigates the theoretical distinction between static grounding and dynamic corrective control in large language models, proposing a framework to analyze how different inference routes support truth-tracking. By decomposing model behavior into inherited constraints versus live correction mechanisms, it offers critical insights for developers aiming to build systems that can independently verify facts rather than merely maintaining internal consistency. The work addresses fundamental challenges in aligning generative AI with real-world accuracy without relying solely on post-hoc conceptual refitting.
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Grounding Without Corrective Control: Truth-Tracking Profiles for Large Language Models

arXiv3 min read

arXiv:2608.14252v1 Announce Type: cross Abstract: Recent work suggests that some large language model representations have content or reference. Grounding can secure either without supplying live routes for correction. This paper asks what follows from that gap. An output is answerable when discrepancies can affect what a target- and task-specific arrangement produces, accepts, or withdraws. The arrangement has corrective control only when live, sufficiently independent routes can detect and repair fresh discrepancies. A route profile records which routes constrain the arrangement and how they are related. Those profiles support analysis of truth-tracking: patterned support for representational success. Language models are the pressure case; text-only arrangements provide a task-relative limiting case. Text-trained models inherit patterns of testimony, coherence, and prior correction. Where target-sensitive correction survives training, these can supply derivative answerability (inherited constraint); live answerability is the relation supplied by a current route for fresh discrepancies. Fluent failures should follow when a task requires independently informative access to the facts. Self-consistency, retrieval, tools, code execution, multimodal input, and feedback should help selectively. Route-by-task interactions test the distinctions. The decomposition's empirical burden is to predict held-out route--task combinations or improve intervention choice without conceptual refitting. Surface improvement and truth-tracking improvement can come apart.

Abstract:Recent work suggests that some large language model representations have content or reference. Grounding can secure either without supplying live routes for correction. This paper asks what follows from that gap. An output is answerable when discrepancies can affect what a target- and task-specific arrangement produces, accepts, or withdraws. The arrangement has corrective control only when live, sufficiently independent routes can detect and repair fresh discrepancies. A route profile records which routes constrain the arrangement and how they are related. Those profiles support analysis of truth-tracking: patterned support for representational success. Language models are the pressure case; text-only arrangements provide a task-relative limiting case. Text-trained models inherit patterns of testimony, coherence, and prior correction. Where target-sensitive correction survives training, these can supply derivative answerability (inherited constraint); live answerability is the relation supplied by a current route for fresh discrepancies. Fluent failures should follow when a task requires independently informative access to the facts. Self-consistency, retrieval, tools, code execution, multimodal input, and feedback should help selectively. Route-by-task interactions test the distinctions. The decomposition's empirical burden is to predict held-out route--task combinations or improve intervention choice without conceptual refitting. Surface improvement and truth-tracking improvement can come apart.

24 pages, 1 figure, 1 table. A six-page methodological supplement, reproducible R script, and constructed data are included as ancillary files

Artificial Intelligence (cs.AI); Computation and Language (cs.CL)

arXiv:2608.14252 [cs.AI]

(or arXiv:2608.14252v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2608.14252 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

gelman_fake_data_calibration.csv

gelman_fake_data_metadata.txt

gelman_fake_data_paired_comparisons.csv

gelman_fake_data_replications.csv

gelman_fake_data_summary.csv

gelman_fake_data_workflow.R

online-resource-1.pdf

(3 additional files not shown) You must enabled JavaScript to view entire file list.

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Full text under the publisher's open licence · 335 words

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