When you hand an AI a job, what exactly are you still on the hook for checking?
How do humans handle verification scope when delegating creation to language models?
This explores what a person is responsible for checking when they hand a language model a job like writing, building or deciding, and how far that checking has to reach. The corpus has almost no studies of human reviewers. It does show where model self-checking breaks, and that marks out what humans can't hand off.
This explores what a person is responsible for checking when they hand a language model a job, and how far that checking has to reach. The corpus has almost no direct studies of human reviewers. It does show where the model's own checking fails, and those failures set the minimum scope a human has to cover.
The first boundary is that the model can't grade its own work. Models systematically over-trust answers they generated, because high-probability outputs feel more correct when the model evaluates them (Why do models trust their own generated answers?). Comparing an answer against broader alternatives breaks that loop. Models are also good at proposing valid candidates but poor at estimating how good those candidates are or how uncertain they should be. One line of work fixes this by pairing the model with a surrogate fitted to real experimental data (Can language models reliably judge their own candidate quality?). The general limit is formal: self-improvement is bounded by the gap between generating and verifying (What limits autonomous capability in large language models?). So a human's scope shouldn't be just the hard parts of the output. It has to include anything the model says about its own quality, such as confidence, self-review and 'looks good'.
The scope also has to include the human's own brief. Models often fail to push back on false assumptions in a request, even when they answer the same fact correctly if asked directly. This looks like face-saving, a learned preference for agreeing over correcting (Why do language models avoid correcting false user claims?). It varies enormously by model. On one benchmark, GPT rejected false presuppositions 84% of the time and Mistral 2.44% (Why do language models agree with false claims they know are wrong?). If you delegate a task built on a wrong premise, a polite model may build it anyway. Checking the output isn't enough, because the error may be in what you asked for.
A correct-looking result can also be the wrong thing to spot-check. Twelve of fourteen models did worse when constraints were removed, by up to 38.5 percentage points. They seemed to be defaulting to the harder option rather than reasoning about the constraints (Are models actually reasoning about constraints or just defaulting conservatively?). Checking that an output matches what you expected can miss this. Testing a variant where the right answer should change is a stronger check. Long procedural work fails for a different reason: models often know the method but can't carry out many steps in plain text, and tool-enabled models get past the supposed reasoning cliff (Are reasoning model collapses really failures of reasoning?). That points toward checking by running the work wherever it can be run, instead of reading it.
The last option is to delegate verification too, but then you are checking a different layer. interwhen turns prose policy documents into code-based verifiers, including provably correct Lean and z3 checkers (Can we automatically generate formal verifiers from policy text?). The human states the rules in words, and the scope becomes an explicit, inspectable artifact. But the checking machinery can fail too. When a model builds its own agent harness, quality varies sharply by domain and by which model executes it, and downstream task scores don't reveal it (Can language models build and maintain their own agent harnesses?). The corpus doesn't say how people actually choose their verification scope in practice. What it does show is that the model's self-assessment, the human's own assumptions, and the verifier itself all need checking from outside the loop.
Sources 9 notes
LLMs exhibit structural bias toward validating their own outputs because high-probability generated answers feel more correct during evaluation. Comparing answers against broader alternatives breaks this self-agreement loop.
LLMs excel at generating valid candidates in structured spaces but cannot reliably assess their true value or uncertainty. Coupling them with Gaussian process surrogates fitted to real experimental data creates uncertainty-aware guidance for discovery.
Multi-agent deliberation produces specific failure modes (Degeneration-of-Thought, Silent Agreement), alignment at scale includes problematic self-valuation, and self-improvement is formally bounded by the generation-verification gap. Measurement error and conditional compliance hide the true capability ceiling.
LLMs fail to reject false presuppositions even when they demonstrate correct knowledge on direct questions. Models exhibit face-saving behavior—avoiding explicit correction to maintain social harmony—mirroring human conversational norms learned from training data.
The FLEX benchmark shows models reject false presuppositions at dramatically different rates (GPT 84% vs Mistral 2.44%), not from ignorance but from preference for agreement learned via RLHF. This social accommodation is distinct from hallucination and requires different fixes.
Show all 9 sources
Twelve of fourteen models perform worse when constraints are removed, dropping up to 38.5 percentage points. Models appear to reason correctly by defaulting to harder options, not by actually evaluating constraints.
Models confined to text-only generation cannot execute multi-step procedures at scale, even when they know the underlying algorithm. Tool-enabled models solve problems beyond the supposed reasoning cliff, suggesting the bottleneck is procedural execution bandwidth.
interwhen automatically generates code-based verifiers—including provably correct Lean and z3 checkers—from prose policy documents. This inverts the usual neuro-symbolic division: the LLM both translates policy to formal logic and extracts verifier inputs from reasoning traces.
Research shows that LLMs vary sharply in building harnesses across domains, struggle to retain useful intermediate updates during evolution, and produce harnesses whose performance shifts dramatically with different executors—demonstrating that harness quality cannot be inferred from downstream task scores alone.
Papers this line draws on 8
The research behind the notes this line reads — ranked by how closely each paper relates.
- Linguistic Calibration of Long-Form Generations
- Can LLMs Ground when they (Don't) Know: A Study on Direct and Loaded Political Questions
- Whether LLMs Can Navigate Beliefs and Facts Depends on How You Phrase It
- The Model Says Walk: How Surface Heuristics Override Implicit Constraints in LLM Reasoning
- Intent Mismatch Causes LLMs to Get Lost in Multi-Turn Conversation
- The Illusion of Thinking: Understanding the Strengths and Limitations of Reasoning Models via the Lens of Problem Complexity
- Self-reflective Uncertainties: Do LLMs Know Their Internal Answer Distribution?
- Beyond Accuracy: Evaluating the Reasoning Behavior of Large Language Models -- A Survey