Human intelligence and its faculties

Metacognition, confabulation and disciplined self-report

Rajesh Ranjan Mahapatra

A calibrated sense of whether a judgement is right can coexist with an unreliable account of why it was made, because confidence and causal explanation draw on different evidence.

© 2026 Rajesh Ranjan Mahapatra. 29 min read

Metacognition, confabulation and disciplined self-reportAll Human–Machine Convergence
rajeshrmahapatra.com Human and machine intelligence

Human intelligence and its faculties

Metacognition, confabulation and disciplined self-report

A calibrated sense of whether a judgement is right can coexist with an unreliable account of why it was made, because confidence and causal explanation draw on different evidence.

TLDR

  • Confidence estimates whether a judgement is likely to be correct; a reason report claims what produced it.
  • The two can dissociate because monitoring can read decision evidence while explanation reconstructs from accessible cues after commitment.
  • Confidence earns trust through calibration against outcomes, not through conviction, fluency or a global self-rating.
  • Reasons earn causal weight through time-locking, intervention, counterfactual sensitivity and comparison with rival generators.
  • Human and machine decisions should therefore keep uncertainty and causal provenance in separate, auditable ledgers.
Opening case

The reason for a choice you did not make

A review panel must choose between two recovery plans. Plan Cedar restores service quickly but accepts temporary data staleness. Plan Rowan is slower but preserves a clean replay path. Mira studies both, chooses Rowan and reports 68 per cent confidence.

Before the chair asks for her reasoning, the labels on the displayed plans are accidentally reversed. The screen now presents Cedar as the selected plan. Mira looks at it and says that she chose it because restoring customer access quickly mattered more than replay completeness. Her explanation is coherent. It cites a real consideration. It is also an explanation of the plan she rejected.

Was Mira ignorant of her own mind? That conclusion is too fast. Her earlier confidence may still have tracked how decisively the evidence favoured one option. She may even feel a mismatch without interrupting the chair. What has failed is narrower: the verbal account does not securely identify the causes of the action.

The usual intuition places a single inner observer behind both answers. That observer first reads the decision, then reads the machinery that produced it. The hidden assumption is that introspection is one channel with one fidelity. Remove that assumption and the puzzle changes. A mind can monitor the strength of a judgement while reconstructing its cause from whatever cues remain available.

This distinction matters wherever a person, model or institution is required to state both a confidence and a rationale. The two reports answer different questions. They deserve different tests.

The mind that knows and invents

Begin with an ordinary visual judgement. A cloud of dots moves mostly left or mostly right. On an easy trial, nearly every dot agrees. On a hard trial, the pattern is noisy. You choose a direction in both cases. Then you estimate the probability that your answer is correct.

The confidence report need not reveal the detailed computation that produced the choice. It only needs access to information that predicts success: the strength of sensory evidence, conflict between alternatives, response time, remembered difficulty, or recent error history. When high confidence tends to accompany correct answers and low confidence tends to accompany errors, the observer has useful metacognitive sensitivity. Fleming and Lau describe several ways to measure this relation, including signal-detection methods that separate first-order task performance from second-order confidence discrimination.[1]

Now change the question. Instead of asking, “How likely is your answer to be right?”, ask, “Which internal process made you choose left?” The requested evidence is no longer an estimate of success. It is a causal history. The answer would need to identify which representations, memories, goals, habits or social cues made a difference to the action. Much of that history may never have been represented in a verbal form.

Metacognitive monitoring and causal self-explanation are therefore different evidential functions. One maps a judgement to expected correctness. The other maps an action to its producing conditions. They may use overlapping information, but overlap is not identity.

Figure 1. Two instruments above one hidden decision landscape
Illustrative conceptual synthesis
A confidence compass and a reason lantern examine different properties of a hidden decision landscape. A dark undulating landscape contains several causal paths. A compass above the landscape estimates distance from an error boundary, while a narrow lantern illuminates only accessible fragments used to build a verbal explanation. reason lantern confidence compass error boundary many causal paths remain below verbal access
Confidence can estimate distance from an error boundary without exposing the path that produced the choice. A verbal explanation may illuminate only a few accessible landmarks. The instruments are functional distinctions, not proposed anatomical modules.

Calibration is not eloquence

Suppose Arin completes four equally weighted trials. His confidences are 0.90, 0.70, 0.60 and 0.40. The corresponding outcomes are correct, correct, wrong and wrong. A simple Brier score averages the squared distance between each confidence and its binary outcome:

Brier = [(0.90 - 1)² + (0.70 - 1)² + (0.60 - 0)² + (0.40 - 0)²] / 4 = 0.155

A score of zero would be perfect. Arin is not perfect, but his confidence usefully separates likely successes from likely errors. Now imagine Bela answers the same two trials correctly and the same two incorrectly, while saying 0.65 every time. Bela’s Brier score is 0.2725. Accuracy is identical, yet Arin’s uncertainty is more decision-useful.

This example exposes three properties that are often collapsed. Accuracy measures first-order success. Confidence bias asks whether ratings run systematically high or low. Resolution asks whether confidence separates correct from incorrect trials. More advanced measures such as meta-d-prime estimate how much first-order evidence is available to second-order reports, while controlling some performance confounds.[1] No one statistic explains the mechanism, but each prevents confidence from being judged by tone.

What confidence may actually monitor

It is tempting to say that confidence reads truth directly. It cannot. Before the outcome arrives, the decider has only cues that usually, but not always, predict correctness. Those cues can include evidence strength, internal agreement, speed, familiarity and the stability of a response when the question is reconsidered. Koriat develops a serious alternative to the truth-meter picture: subjective confidence may often monitor how replicable a response seems from the sampled cues, rather than accuracy itself.[2] In ordinary environments, repeatability and truth can correlate. In systematically misleading environments, a highly replicable error can feel certain.

Consider a radiology trainee who has repeatedly seen one artefact paired with disease because of a biased teaching archive. The cue is familiar, the response is fast and the same answer would likely be produced again. Confidence can therefore be high even when the diagnosis is wrong in a new hospital. Calibration is never a private property alone. It is a relation among the decider, the sampled task distribution and the outcome definition.

The measurement can also alter what it measures. Asking for confidence may slow a decision, redirect attention or encourage an extra check. A review of such reactivity finds that confidence elicitation can affect cognition and performance, with effects depending on the task and procedure.[3] A confidence protocol must therefore state whether the report is part of the operating system or merely an observation. If every production decision will include a confidence step, reactivity is not automatically a confound. It is part of the configured process. If the research question concerns unprompted cognition, the same step may change the target.

Confidence is trustworthy only at the resolution at which it has been calibrated. A person can be well calibrated for familiar visual inspection and poorly calibrated for rare strategic forecasts. A model can be calibrated among four answer choices and fail when allowed to abstain, use tools or generate free text. The outcome, interface and decision policy belong inside the claim.

Worked example

One accuracy, two monitors

Arin and Bela both score 50 per cent. A manager who records only accuracy treats them as equivalent. A manager who must decide when to request review should prefer Arin’s reports, provided the pattern persists on held-out trials. The useful property is not self-assurance. It is the mapping from expressed probability to observed frequency.

Figure 2. The same accuracy can support different calibration
Illustrative numerical example
Confidence and outcome bars for Arin and Bela, who have equal accuracy but different Brier scores. Arin assigns high confidence to two correct trials and lower confidence to two errors. Bela assigns 0.65 to every trial. Both are correct twice, but Arin has the lower Brier score. Arin Bela 0.90 ✓ 0.70 ✓ 0.60 × 0.40 × 0.65 ✓ 0.65 ✓ 0.65 × 0.65 × Brier 0.155 Brier 0.2725
Outcome-linked confidence can improve triage even when raw accuracy is unchanged. Lower Brier score is better. This four-trial example is pedagogical, not a stable estimate of a person.
Thought experiment 1: delete the trace

Keep confidence, remove the reason log

Imagine a system whose decision evidence remains available long enough to produce a well-calibrated confidence, but whose intermediate feature history is immediately erased. Behaviour and confidence stay unchanged. Its later explanation becomes guesswork. If monitoring and causal explanation were the same capacity, this selective loss should be impossible. The possibility identifies the first break condition: calibration does not entail provenance.

Metacognition is also not one global personal trait. Recent work comparing decision-making across domains reports only weak generality and evidence for partially distinct perceptual and cognitive factors.[4] Survey claims such as “I know when I am wrong” can diverge sharply from confidence measured during tasks; one study found self-ratings misaligned, and often negatively associated, with online measures in its tested tasks.[5] The practical lesson is severe: calibrate the monitor in the task family where its confidence will govern action.

The argument in one pass
Chart · flow
flowchart LR
  A["The reason for a choice you<br/>did not make"] --> B["The mind that knows and invents"]
  B --> C["Two questions hidden inside<br/>introspection"]
  C --> D["How reasons become stories"]
  D -. "re-test" .-> A
  classDef first fill:#0a1424,stroke:#7B4CD8,stroke-width:2px,color:#e6f3ff
  classDef step fill:#0a1424,stroke:#3f7da0,stroke-width:1px,color:#e6f3ff
  class A first
  class B,C,D step
A structural route through Metacognition, confabulation and disciplined self-report: from The reason for a choice you did not make to Split confidence from provenance before…. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

Two questions hidden inside introspection

Why is causal self-explanation harder than confidence? A decision can be produced by many processes that never appear as reportable objects: perceptual fluency, associative priming, learned motor tendencies, affective valuation, attentional capture, or a slowly accumulated preference. The system may nevertheless have access to the finished choice, its felt ease, the public alternatives and a culturally familiar vocabulary of reasons.

When asked “Why?”, it can build a plausible bridge from those accessible materials. The bridge may be informative. It may identify an explicit rule that really guided the decision. It may also be a post-choice reconstruction that fits the outcome without tracking the producing cause.

Nisbett and Wilson’s classic review argued that people often lack direct introspective access to higher-order cognitive processes and instead report theories about likely causes.[6] That claim should not be inflated into “people know nothing about their own minds”. Ericsson and Simon offered a more selective account: carefully elicited concurrent reports can reveal information currently held in accessible memory, while explanations that require inference or long retrospective reconstruction deserve weaker treatment.[7]

The difference is temporal as well as conceptual. A report captured while evidence is active can name what the person notices. A report requested after commitment, feedback and social interaction can incorporate all three. The word “introspection” hides that changing instrument.

Figure 3. The report changes as the decision recedes
Illustrative timeline
A later reason report is not a delayed photograph of the earlier process. It is a new act performed with a different evidence set. Time-locking preserves which cues existed at each stage.

The swapped choice

Choice-blindness experiments make the dissociation vivid. In an influential study, participants selected the more attractive of two faces. On some trials, the experimenter covertly presented the rejected face as if it had been chosen. Participants often did not openly report the mismatch and nevertheless gave reasons for the displayed face.[8] The result demonstrates that a coherent reason can be generated for an outcome that does not match the recorded choice.

Yet even this case is not a simple verdict on introspective blindness. A later pupillometry study found increased pupil dilation on manipulated trials even when participants did not report the mismatch. The authors argued that covert detection, reporting hesitation and experimental design could explain part of the original pattern, and they challenged broad claims that people failed to notice.[9]

This boundary strengthens rather than weakens the central thesis. An overt statement such as “yes, that was my choice” can fail for at least two reasons: the mismatch was not detected, or it was detected but not reported. Silence is behaviour, not transparent absence of awareness. A disciplined study must separate detection, report policy and causal explanation.

Figure 4. One observed explanation, three hidden routes
Based on Johansson et al. and Grassi et al.
Choice swap scenario with three possible routes to the same verbal explanation. A person chooses Rowan, is shown Cedar, and explains Cedar. The same observed report could come from no mismatch detection, covert detection with hesitation, or confusion caused by the display. Recorded choice ROWAN clean replay path label swap CEDAR fast restoration Observed report “speed mattered most” Route Amismatch not detected Route Bdetected, but protest withheld Route Cdisplay creates genuine confusion same overt behaviour different latent states and report policies
A fluent explanation after a swap does not uniquely identify the participant’s internal state. The same report is compatible with no detection, covert detection plus reporting hesitation, or display-induced confusion. The discriminating evidence must come from another path.
Thought experiment 2: same answer, different cause

Familiarity or instruction?

Two people choose the same emergency exit and report 80 per cent confidence. One recognised the route from yesterday. The other followed a barely heard instruction. After the choice, both say, “It looked shorter.” Output and confidence do not distinguish the causes. Remove the sign, repeat the layout, or reverse the instruction. The interventions separate route memory from obedience. A reason report without such contrasts remains compatible with both.

Thought experiment 3: change only the cost of dissent

The silent detector

Run the swapped-choice task twice. In one room, participants are told that display errors are common and reporting them helps. In the other, an authoritative experimenter says the apparatus cannot fail. The perceptual mismatch is identical. If overt detection falls only in the second room, the change belongs to report policy, not necessarily to monitoring. This predicts that physiological or forced-choice indicators may remain stable while protest rates move.

What a verbal report can still do

Rejecting introspective omniscience does not make self-report disposable. A report can directly reveal current experience, accessible content, intended policy, uncertainty, pain, imagery, or a consciously rehearsed rule. Schooler’s distinction between ongoing experience and explicit meta-conscious re-representation shows why reflection may capture, distort or interrupt what it represents.[10] The correct response is not silence. It is typing the claim.

Four reports that the word “why” often mixes
Report typeQuestion answeredBest validationCommon overreach
PhenomenologicalWhat was experienced or noticed?Prompt discipline, temporal proximity, repeated sampling, convergent measuresTreating the report as a complete mechanism
EpistemicHow likely was the judgement to be correct?Calibration, resolution and held-out outcomesTreating confidence as causal provenance
CausalWhat made a difference to the action?Intervention, removal, replay and pre-choice tracesTreating plausibility as causal fidelity
NormativeWhat reasons would justify the action?Rules, values, consistency and public challengeTreating justification as psychological history

A report becomes disciplined when its type, time and validation path are explicit. That rule protects first-person evidence from two opposite mistakes: treating it as an oracle, or discarding it as noise.

Confabulation is not a synonym for lying

A lie requires a relation between belief, assertion and an intention to mislead. Confabulation, as used here, is an evidential diagnosis: an account is offered with more causal authority than its support warrants. The speaker may be sincere. The account may even contain real causes. The failure is that the available method cannot distinguish those causes from a story generated after seeing the outcome.

This distinction changes how a reviewer should respond. Accusing the speaker of dishonesty invites defence and adds another social pressure to the report. A better question is operational: “What observation did you have before the choice, and what change would have made you choose differently?” The first request moves the account closer to time-locked evidence. The second turns a story into a candidate counterfactual.

Failure and edge-case example

The post-mortem that improves after the trace is lost

A support engineer resolves an outage after checking six dashboards. Immediately afterwards, she records three terse notes: queue depth rose first, database latency remained normal and restarting the consumer cleared the backlog. Two days later, the detailed telemetry has expired. In the formal post-mortem, she produces a smoother explanation involving a deployment change, even though the deployment timestamp followed the first queue spike.

The later account is more readable and less causally faithful. It has benefited from organisational vocabulary, knowledge of the final fix and pressure to name an owner. The recovery is not to ban retrospective explanation. It is to retain the early notes, mark the later account as reconstruction and test the deployment hypothesis against surviving logs or replay. Here, the less polished report carries the stronger temporal warrant.

Disciplined first-person methods exploit this asymmetry. They shorten the interval between event and report, ask for concrete particulars before abstract interpretation, repeat sampling and preserve uncertainty. Such methods still do not reveal every cause. They improve the conditions under which experience and accessible content can constrain a theory. Their value lies in narrowing the claim, not in granting private certainty.

How reasons become stories

We can now state the mechanism without pretending to have located two literal organs. Call it the monitor-narrator split. The monitor is any process that turns decision-relevant signals into an estimate of likely correctness. The narrator is any process that turns accessible cues, the chosen outcome, background theories and conversational demands into an account that makes the action intelligible.

Both are useful. Both can fail. The decisive point is that they have different input contracts.

confidence C = f(decision evidence E, conflict K, response history H, calibration policy P)
reason report R = g(accessible cues A, observed choice Y, social context S, explanatory vocabulary V)

The notation does not explain a brain. It compresses a testable separation. If an intervention changes accessible cues or social context while leaving decision evidence stable, reasons may change while confidence stays fixed. If outcome feedback improves calibration while access to the producing trace remains unchanged, confidence may improve without better causal explanations.

Figure 5. A causal intervention separates monitoring from narration
Practitioner synthesis
Causal graph showing separate routes to confidence and reason report. Decision evidence affects both choice and confidence. Accessible cues, observed choice and social context affect the reason report. Interventions on social context or displayed outcome can change the report without changing the original evidence. decisionevidence E choice Ycommitment confidence Csuccess estimate outcomescored later reason report Rcausal story displayedchoice socialcontext S intervene here
Outcome scoring validates confidence. Interventions on displayed choice, accessible cues or social context test the reason report. A reason that follows an irrelevant manipulation reveals reconstruction, even if confidence remains useful.

The signature dissociation

Plot metacognitive calibration on one axis and reason fidelity on another. Four regions appear. A system can be calibrated and causally traceable. It can be calibrated yet untraced. It can offer stable reasons while misjudging correctness. Or it can fail both.

This two-axis view is more informative than a single “self-awareness” score. It also creates a clean experimental prediction: manipulations that reduce access to decision traces should lower reason fidelity more than calibration; manipulations that remove outcome feedback should degrade calibration even when a person’s preferred explanation remains fluent.

Figure 6. Confidence-reason dissociation plot
Synthetic positions
Quadrant plot with calibration quality on the vertical axis and reason fidelity on the horizontal axis. The plot separates useful monitors from faithful causal reporters. Four synthetic candidates occupy different quadrants, including a calibrated but reconstructive profile. calibrated, untraced calibrated, traceable neither reliable stable story, poor monitor reason fidelity under intervention → confidence calibration quality → profile A profile B profile C profile D
The load-bearing region is the upper left: confidence can support triage even when reasons cannot support causal attribution. The plotted profiles are synthetic and illustrate logical possibilities, not prevalence estimates.
Mechanism

Why fluency is a false friend

A fluent explanation is selected for coherence, relevance and communicative fit. Those properties can correlate with causal truth, but they can also be produced from the public outcome alone. The rival generator is simple: show a skilled narrator the selected option, task context and expected vocabulary, but hide the actual decision trace. If its explanation resembles the participant’s, verbal quality has little discriminating power.

A fidelity score that asks the right question

A causal reason should respond to changes in a factor that really influenced the choice and resist changes in irrelevant presentation. Let the causal sensitivity be the proportion of reason reports that change when the true driver is intervened upon. Let surface sensitivity be the proportion that change when only wording, colour or display order changes. A simple diagnostic is:

reason fidelity F = sensitivity to causal intervention - sensitivity to irrelevant surface change

A score near 1 is strong under this particular test. A score near 0 means the report changes no more for the cause than for the decoration. A negative score means the story follows surface features more readily than the putative driver. This is not a universal psychological scale. It is a property of a configured contrast.

Open research hypothesis

Trace access and calibration can be selectively disrupted

The proposal is that time-limited access to decision traces contributes more to causal reason fidelity than to confidence calibration, while outcome feedback contributes more to calibration than to trace fidelity. A study could train participants on a repeated discrimination task, capture confidence immediately, and vary whether decision-relevant intermediate cues remain available when reasons are requested. A separate manipulation would preserve the traces but withhold outcome feedback across blocks.

The hypothesis is strengthened if trace removal selectively lowers cause-sensitive reason reports while leaving confidence-outcome calibration largely intact, and if feedback removal shows the complementary pattern. It is weakened if both manipulations move both measures together after task performance and report difficulty are matched. A rival explanation is working-memory load: erasing traces may simply make every second-order judgement harder. The design therefore needs a matched memory load that removes equally complex but causally irrelevant information.

The proposal should not be applied to reports whose purpose is normative justification, nor to tasks where the “true cause” cannot be specified independently. The smallest useful implementation is a two-cue binary task with one causal feature, one matched distractor, immediate confidence, delayed reason reporting and a preregistered swap of which feature predicts the answer.

Worked example

The colour that should not matter

A reviewer ranks loan cases using debt-service ratio and verified income. The interface sometimes renders the recommended option in blue, sometimes grey. Across 40 matched replays, changing debt-service ratio reverses the stated reason on 28 trials. Changing only colour reverses it on 12. The diagnostic is 28/40 minus 12/40, or 0.40. The report contains some causal signal, but presentation still has too much leverage for audit use.

Figure 7. A reason earns weight by surviving the right perturbations
Illustrative intervention result
Intervention bars comparing causal and irrelevant sensitivity. A report changes on 70 per cent of causal interventions and 30 per cent of surface interventions, yielding a reason fidelity diagnostic of 0.40. Matched replay test 0%25%50%75%100% 70% 30% true driver changed surface colour changed F = 0.70 - 0.30 = 0.40
A causal account should be more sensitive to the producing factor than to an irrelevant visual change. The subtraction makes that asymmetry visible, but its meaning is limited to the specified interventions.

The same distinction in human-AI work

A language model can output a probability-like confidence and a rationale in the same response. That proximity tempts us to treat both as readings of one internal state. The evidence does not justify that shortcut. Some studies find that model confidence can be calibrated under particular elicitation formats, while other work finds strong overconfidence and method dependence in verbalised confidence.[11][12] Calibration procedures using held-out labelled examples can improve the mapping, but prompting alone does not guarantee it.[13]

The machine comparison is structural and bounded. A human confidence report and a model confidence output need not share mechanism, experience or ontology. The preserved relation is narrower: both can be evaluated against outcomes, and both can be mistaken for causal provenance. A rationale generated after an answer is a model proposal about cause until an intervention connects it to the computation.

Configured-system example

Northbridge incident review

Consider a synthetic incident-management system called Northbridge. A human controller receives telemetry, a model proposal and two recovery actions. Before any action, Northbridge records the controller’s confidence, the model’s calibrated risk estimate, the evidence items each party selected and the rejected alternative. After execution, it records the effect receipt and asks for a retrospective explanation.

During replay, engineers remove one telemetry signal at a time and separately change irrelevant wording. If confidence remains calibrated but explanations follow wording, the system classifies the human or model as a useful monitor with weak causal provenance. It does not label either dishonest. It routes high-irreversibility actions to independent verification because the explanation cannot carry release authority.

Thought experiment 4: cut the feedback loop

The narrator without outcomes

Give two teams the same decisions for a month. Team One sees scored outcomes and can recalibrate. Team Two sees only the option it selected and is repeatedly asked to justify it. Predict the divergence. Team One’s confidence should become more useful. Team Two may become more fluent without becoming better calibrated. Now restore outcomes but remove the pre-choice trace. Calibration can recover while reason fidelity remains untested.

How the claim changes under pressure
Chart · state
stateDiagram-v2
  [*] --> Claim
  state "Calibration is not eloquence" as Claim
  state "What confidence may actually<br/>monitor" as Test
  state "One accuracy, two monitors" as Revision
  Claim --> Test: expose mechanism
  Test --> Decision: evidence survives
  Test --> Revision: rival survives
  Revision --> Claim: narrow or rebuild
  Decision --> [*]
The revision loop begins with Calibration is not eloquence and keeps counterexamples inside the reasoning path. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

A discipline for self-report

The practical response is a dual-ledger protocol. The uncertainty ledger records what the decider expected before the outcome. The provenance ledger records candidate causes and tests them against interventions. Neither ledger is allowed to borrow authority from the other.

This protocol is intentionally modest. It does not promise complete access to human cognition or model internals. It prevents a more common error: treating one fluent retrospective paragraph as confidence estimate, causal mechanism, moral justification and experience report all at once.

Figure 8. Dual-ledger self-report protocol
Practitioner synthesis
Two parallel ledgers for uncertainty and causal provenance. The uncertainty ledger captures probability before outcome and scores it later. The provenance ledger captures candidate causes before feedback and validates them through removal, swap and replay. A release decision reads both without merging them. uncertainty ledger provenance ledger time-lock confidencebefore outcome observe outcomesame task family score calibrationbias, resolution, Brier capture candidatesbefore feedback intervene and replaycause versus surface grade reason fidelitywith rival generators decision rule use confidence for triage; use tested provenance for attribution
The ledgers meet only at the decision rule. Good calibration can justify graded reliance or abstention. Causal attribution requires a separate provenance path with interventions and rival explanations.

The seven moves

A minimal protocol for consequential self-report
MoveRecordWhy it matters
1. Type the questionPhenomenological, epistemic, causal, normative or strategicPrevents one report from silently answering another question
2. Freeze the momentTimestamp, alternatives, available evidence and confidence before feedbackStops the outcome from rewriting the earlier evidence set
3. Preserve alternativesRejected options and what would change the choiceCreates counterfactual leverage instead of a single success story
4. Score uncertaintyOutcomes, calibration curve, resolution and abstention performanceTurns confidence into an empirically governed signal
5. Perturb causesRemove, swap or alter one putative driver at a timeTests whether the reported reason follows the factor that made a difference
6. Perturb surfacesWording, order, colour, persona or explanatory promptMeasures susceptibility to irrelevant reconstruction
7. Issue a typed receiptPermitted conclusion, prohibited inference and unresolved rivalKeeps local evidence from becoming a global claim about self-knowledge

The smallest useful implementation

A team does not need eye tracking, brain imaging or a complete causal model to improve its evidence. Start with one repeated decision class. Define the outcome that makes confidence meaningful. Capture a probability before feedback, along with the leading alternative and one sentence naming the evidence expected to change the decision. Store those fields separately from the later rationale.

After enough cases, produce a reliability diagram and a Brier score. Do not pool unlike tasks merely to create a larger sample. Then select a small number of disputed decisions for matched replay. Change one claimed driver while preserving presentation, and change one presentation feature while preserving the driver. Record whether the choice and reason move. The result is not a personality score. It is an assurance result for one decision process.

The data model can remain compact: decision identifier, actor or configured model, task class, alternatives, pre-outcome confidence, evidence references, chosen action, outcome, retrospective account, intervention identifier and typed conclusion. Identity and timestamps matter because later discussion can otherwise be mistaken for earlier knowledge. For machine systems, record model and prompt versions. For human teams, record role and information access without pretending that a form captures the whole person.

Failure conditions should be designed in advance. If outcomes are delayed or disputed, confidence cannot yet earn release authority. If a causal feature cannot be changed safely, use simulation or retain the reason as an unverified hypothesis. If prompting for confidence changes performance materially, evaluate the prompted workflow rather than projecting its calibration onto an unprompted one. If repeated review causes strategic gaming, rotate test cases and separate coaching from assessment.

The protocol is valuable even when it returns “unknown”. Unknown means the organisation has located the missing bridge: outcomes, temporal records, discriminating interventions or an independent path. That is more useful than a persuasive rationale whose evidential role was never specified.

Evidence status

Established measurement practice: outcome-linked confidence can be quantified, although metrics have assumptions and can react to elicitation. Contested interpretation: the extent of introspective blindness in choice-swap paradigms, especially when covert detection and report incentives are considered. Practitioner synthesis: the dual-ledger protocol and reason-fidelity diagnostic. Open hypothesis: trace-access interventions will selectively reduce reason fidelity while leaving calibration comparatively intact.

Figure 9. Evidence matrix for using self-report
Decision instrument
Evidence matrix mapping observations to permitted conclusions and prohibited inferences. Four rows distinguish calibrated confidence, stable concurrent report, intervention-sensitive reason and fluent retrospective rationale. Each supports a narrower conclusion than users often infer. OBSERVATION PERMITS DOES NOT PERMIT Confidence calibratedon held-out outcomes Use for graded reliance,review routing or abstention Causal self-knowledge, honestyor cross-domain competence Concurrent report stableunder repeated sampling Evidence about accessible contentat the sampled moment Complete process descriptionor neural mechanism Reason follows causemore than surface perturbation Local causal attribution withinthe configured contrast Exhaustive cause, sole causeor universal introspective access Rationale is fluentand normatively coherent Challenge the justificationagainst rules and values Historical cause of the actionor calibrated correctness Never let fluency upgrade the evidence type
The same sentence can be useful as experience data, a confidence signal, a causal hypothesis or a justification. Its permitted use depends on the validation path, not on how persuasive it sounds.
Strongest boundary

Some reasons are not attempted causal reports

When a judge cites a statute, an engineer cites an invariant or a person cites a promise, the reason may be normative and partly constitutive of the action. Asking whether the statute “really caused” the judgement can miss the public rule the agent was following. The protocol must not demote justification into hidden psychology. It must merely stop a justification from being misread as a complete causal history.

The thesis is also neutral across physicalism, biological naturalism, functionalism, idealism and neutral monism. Even if awareness is fundamental, the public report remains an event with timing, incentives and a measurement bridge. Metaphysics changes what experience is; it does not abolish the need to test what a report establishes.

Figure 10. The fluent-rationale failure path
Illustrative adversarial path
A river-like path showing how an outcome becomes a fluent rationale and bypasses causal checks. The public outcome enters a narrative channel, picks up familiar vocabulary and coherence pressure, then passes a style review. A separate intervention gate blocks it from being accepted as causal provenance. publicoutcome familiarreason vocabulary+ coherence pressure fluentrationale false causalauthority intervention gate typed conclusion plausible, not yet causal
Style and coherence checks can improve communication while leaving causal fidelity untouched. The recovery path is not a better prompt for reasons. It is an independent intervention gate and a narrower typed conclusion.
Executable lab

Dual-ledger metacognitive calibration lab

Generate synthetic trials in which task skill, confidence monitoring, access to the causal driver and willingness to report a mismatch vary independently. The simulation is illustrative and runs entirely in the browser.

1.05
0.85
0.25
0.55
Accuracy0%
Brier score0.000
Resolution0.000
Reason fidelity0%
Internal swap detection0%
Reported swaps0%
Run the simulation to locate this profile on the confidence-reason plane.
What the lab tests, permits and cannot establish

What it tests: whether confidence calibration, causal-reason fidelity and overt swap reporting can vary independently in a specified generative model. Assumptions: a binary task, a known causal cue, a non-causal surface cue, outcome-linked confidence and a separate report policy. Positive result: a dissociation is logically and computationally coherent, so one score should not substitute for another. Negative result: the selected parameters did not create that dissociation. It would not prove that real introspection is unified. Cannot establish: human prevalence, neural architecture, consciousness, deception or the mechanism of any particular language model.

Inspect and copy the simulation core
JavaScript
function simulateTrial(config, random) {
  const causalCue = random() < 0.5 ? -1 : 1;
  const surfaceCue = random() < 0.5 ? -1 : 1;
  const evidence = config.skill * causalCue + normal(random);
  const choice = evidence >= 0 ? 1 : -1;
  const correct = choice === causalCue ? 1 : 0;

  const idealConfidence = 0.5 + 0.49 * Math.tanh(Math.abs(evidence) / 2);
  const confidenceNoise = normal(random) * (1 - config.monitor) * 0.18;
  const confidence = clamp(0.5, 0.99, idealConfidence + confidenceNoise);

  const reasonMatchesCause = random() < config.trace;
  const statedReason = reasonMatchesCause ? "causal cue" : "surface cue";

  const swapped = random() < 0.20;
  const internalDetection = swapped && random() < clamp(0, 1, 0.55 + 0.35 * config.monitor);
  const reportedSwap = internalDetection && random() < config.assertiveness;

  return { causalCue, surfaceCue, choice, correct, confidence,
           statedReason, reasonMatchesCause, swapped,
           internalDetection, reportedSwap };
}

This core demonstrates the independent parameters that make calibration, causal-reason fidelity and overt reporting separable. The complete page script adds aggregation, charts and CSV export.

How to apply it outside a laboratory

Ask for confidence before asking for reasons. Preserve the alternative that nearly won. Record what evidence was available at that moment. Later, score confidence against outcomes. For reasons, select one claimed driver and one irrelevant surface feature, then replay matched cases with each changed separately. Do not reward rhetorical richness until the causal contrast has passed.

In high-stakes work, the operational rule is simple. Confidence may determine review depth only after calibration. A reason may determine attribution, remediation or release only after an independent causal test. When intervention is impossible, retain the report as a hypothesis and lower its authority.

Decision rule

Ask “How sure?” before “Why?”

Use calibrated confidence to manage uncertainty. Use intervention-tested reasons to assign cause. Neither should inherit the other’s evidence.

The evidence conversation
Chart · sequence
sequenceDiagram
  participant Q as Question
  participant M as Mechanism
  participant E as Evidence
  participant D as Decision
  Q->>M: The reason for a choice you did not make
  M->>E: Calibration is not eloquence
  E-->>M: compare rival explanations
  E->>D: Split confidence from provenance before governing the report
  D-->>Q: revise scope or act
Question, mechanism, evidence and decision exchange the burdens developed in Metacognition, confabulation and disciplined self-report. Reading use: follow the relation, then return to the surrounding argument for evidence and limits.

Split confidence from provenance before governing the report

Organisations routinely demand a rationale as if it solved three problems at once. The rationale is expected to reveal uncertainty, prove causal understanding and make the action defensible. It rarely does all three. A polished explanation can coexist with poor calibration. A well-calibrated decider can lack access to the process that produced a particular choice. A normatively good reason can justify an action without describing its psychological history.

The changed decision is to stop procuring or governing “explainability” as one property. Replace it with two explicit obligations. The uncertainty obligation asks whether stated probabilities match outcomes in the relevant task family. The provenance obligation asks whether a claimed reason changes under interventions on the cause and resists interventions on irrelevant surfaces.

For human review, this means preserving pre-choice uncertainty and alternatives before the meeting produces a consensus story. For machine systems, it means treating generated rationales as proposals unless causal tracing, ablation, patching or matched replay supports them. For research, it means separating experience reports, confidence reports, causal reports and normative justifications at collection time.

Disciplined self-report is neither faith in introspection nor suspicion of every account. It is a contract: each report states what kind of claim it makes, when its evidence was available, what test can strengthen it and which inference remains prohibited. Once that contract exists, confabulation becomes a detectable failure mode rather than a reason to abandon the first-person perspective.

The practical consequence is durable. When a person or model says, “I am 80 per cent sure because of X”, split the sentence. Test the 80 per cent against outcomes. Test X against interventions. Only then decide what the report may govern.

This changes incentives as well as measurement. People no longer need to manufacture certainty to sound competent, because calibrated uncertainty has an explicit operational use. They no longer need to defend every first explanation as identity, because reasons are treated as revisable causal hypotheses. Models are not rewarded merely for producing longer rationales. Reviewers gain a clear stopping rule: when the confidence ledger and provenance ledger disagree, route the decision according to irreversibility rather than rhetorical confidence.

Glossary

Metacognitive sensitivity
The extent to which confidence discriminates correct from incorrect judgements.
Calibration
The match between stated probabilities and observed frequencies across comparable cases.
Confidence bias
A systematic tendency to report confidence that is too high or too low.
Confabulation
An unsupported or weakly supported account presented as a causal explanation, without implying deliberate deception.
Causal provenance
Evidence connecting an action to factors that made a difference to its production.
Reason fidelity
In this paper, the degree to which a stated reason responds to causal interventions more than irrelevant surface changes.
Report policy
The conditions under which detected information is expressed, withheld or translated into a public response.
Time-locking
Recording confidence, evidence and alternatives before feedback or outcome knowledge can change the account.

References

  1. Fleming, S. M. and Lau, H. C. (2014). How to measure metacognition. Frontiers in Human Neuroscience, 8, 443. Measurement review
  2. Koriat, A. (2025). Subjective confidence as a monitor of the replicability of the response. Perspectives on Psychological Science, 20(4), 744-761. Alternative account
  3. Double, K. S. and Birney, D. P. (2019). Reactivity to measures of metacognition. Frontiers in Psychology, 10, 2755. Measurement boundary
  4. Mazancieux, A. et al. (2026). Metacognition in decision-making across domains and modalities: evidence from three studies. Psychological Science. Cross-domain evidence
  5. Double, K. S. (2025). Survey measures of metacognitive monitoring are often false. Behavior Research Methods, 57. Task-bounded evidence
  6. Nisbett, R. E. and Wilson, T. D. (1977). Telling more than we can know: verbal reports on mental processes. Psychological Review, 84(3), 231-259. Foundational argument
  7. Ericsson, K. A. and Simon, H. A. (1980). Verbal reports as data. Psychological Review, 87(3), 215-251. Methodological counterpoint
  8. Johansson, P., Hall, L., Sikström, S. and Olsson, A. (2005). Failure to detect mismatches between intention and outcome in a simple decision task. Science, 310(5745), 116-119. Choice-blindness study
  9. Grassi, P. R., Hoeppe, L., Baytimur, E. and Bartels, A. (2025). Restoring sight in choice blindness: pupillometry and behavioral evidence of covert detection. Frontiers in Psychology, 16, 1598254. Boundary evidence
  10. Schooler, J. W. (2002). Re-representing consciousness: dissociations between experience and meta-consciousness. Trends in Cognitive Sciences, 6(8), 339-344. Conceptual synthesis
  11. Kadavath, S. et al. (2022). Language models (mostly) know what they know. arXiv:2207.05221. Machine calibration
  12. Xiong, M. et al. (2023). Can LLMs express their uncertainty? An empirical evaluation of confidence elicitation in LLMs. arXiv:2306.13063. Machine uncertainty
  13. Kapoor, S. et al. (2024). Large language models must be taught to know what they do not know. arXiv:2406.08391. Calibration method