Use when deriving predictions from a Psychological Review theory and confronting them with existing data and rival models — the journal's substitute for an empirical results section. Develops the argument; it does NOT build the model (psychrev-theory-construction) or set its scope and identifiability limits (psychrev-boundary-conditions).
Scanned 9/5/2026
Install to Claude Code
npx -y skills add brycewang-stanford/Awesome-Journal-Skills --skill psychrev-argument-development --agent claude-codeInstalls into .claude/skills of the current project.
Are you the author of Psychrev Argument Development?
Add the live security badge to your README — it updates automatically with every re-scan.
[](https://www.skillsdirectory.com/skills/brycewang-stanford-psychrev-argument-development)More formats (shields.io, HTML) on the badges page.
---
name: psychrev-argument-development
description: Use when deriving predictions from a Psychological Review theory and confronting them with existing data and rival models — the journal's substitute for an empirical results section. Develops the argument; it does NOT build the model (psychrev-theory-construction) or set its scope and identifiability limits (psychrev-boundary-conditions).
---
# Argument Development: Deriving & Confronting Predictions (psychrev-argument-development)
## When to trigger
- The model is built but you have not shown what it *predicts*
- You assert the theory "explains" phenomena without deriving them
- You have not compared your predictions to rival models on diagnostic cases
- A reviewer will ask "could this theory have been wrong?"
## What replaces a results section here
Psychological Review has no experiment of its own as the contribution. The work that an
empirical paper does with data, a Review paper does with **derivation and confrontation**:
you *derive* predictions from the model's assumptions, then *confront* them with already-
existing evidence and with what rival models predict. Logical and quantitative soundness is
the rigor standard, exactly as statistical inference is at empirical journals.
## The derivation discipline
1. **Derive, do not assert.** For each phenomenon in the explanandum, show how it *follows*
from the assumptions — analytically, or by simulation that traces assumptions → behavior.
"The model can explain X" is worthless without the derivation that it *does*.
2. **Separate signature from accommodation.** A strong prediction is a **signature** — a
pattern the theory entails and rivals do not, ideally a *parameter-free* qualitative
ordering or a novel pattern not used to build the model. Accommodating known data with
fitted parameters is weaker; label it honestly as accommodation, not prediction.
3. **Make at least one risky, novel prediction.** Falsifiability is the journal's currency:
name a pattern that, if observed, would *disconfirm* the theory, and ideally one not yet
tested so future work can adjudicate.
## The confrontation discipline
- **Confront existing data.** Use published datasets (yours or others') to show the model
reproduces the diagnostic phenomena. Report fit honestly: degrees of freedom, number of
free parameters, and whether parameters were estimated or set a priori.
- **Confront rival models head-to-head.** On each diagnostic phenomenon, show what your model
and the rival each predict, and why the data favor yours. A nested or formal model
comparison (e.g., information criteria, parameter recovery) beats a verbal contrast.
- **Address alternative explanations.** For every prediction your model gets right, ask
whether a simpler rival gets it right too; if so, the case is not diagnostic — find one
that is.
- **Probe robustness.** Show the key results do not depend on a fragile parameter setting or
an arbitrary functional form (sensitivity over a plausible range).
## Quantitative honesty (for formal models)
- State the number of free parameters and what each was fit to.
- Distinguish **fit** (reproducing data used to build the model) from **prediction**
(data the model was not tuned on).
- Prefer **generalization** tests (fit on one set, predict another) over in-sample fit.
- Beware flexibility: a model that can fit any pattern predicts nothing — show what it *cannot* do.
## Checklist
- [ ] Each explanandum phenomenon is *derived*, not merely asserted, from the assumptions
- [ ] At least one risky, novel, falsifiable prediction is stated
- [ ] Signatures (rival-distinguishing) are separated from accommodations (fitted)
- [ ] Existing data are used to confront the model; free-parameter count is disclosed
- [ ] Head-to-head comparison with rival models on diagnostic phenomena is shown
- [ ] Alternative simpler explanations are ruled out on each diagnostic case
- [ ] Robustness to parameter/functional-form choices is demonstrated
## Anti-patterns
- "The model can explain X" with no derivation that it does
- Fitting known data and calling accommodation a prediction
- A model so flexible it could fit any result (and therefore predicts nothing)
- Verbal hand-waving where a rival has a formal, quantitative account
- Hiding the number of free parameters or which data were used to fit them
- Picking only phenomena where all theories agree (non-diagnostic)
- Introducing a brand-new experiment as the deciding evidence (data only constrain here)
## Output format
```
【Derivations】[phenomenon → how it follows from assumptions] for each
【Signatures vs. accommodations】[risky/novel predictions] | [fitted accommodations]
【Confrontation】existing data used; free-parameter count; fit vs. generalization
【Head-to-head】[diagnostic phenomenon → your prediction vs. rival's vs. data]
【Robustness】key results stable over parameter/form range: yes / fix
【Next step】psychrev-boundary-conditions (scope, identifiability, what it does NOT explain)
```
Is this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
No comments yet. Be the first to comment!