How a paper is scored.
Every paper receives a single adjusted score between 0 and 100. That score combines two independent judgements: the quality of the work itself, and the evidential weight that the study design carries for the paper's claims. This page explains how each is built, how they combine, and why the combination is structured the way it is.
A review-based assessment of how well the paper is executed: rigour, clarity, transparency, and the validity of its conclusions. Built from issues (scored by criticality) and merits (scored by calibre) across eight categories.
The evidential weight that the study design carries for the paper's claims: how well those claims are shielded from alternative explanations. What counts as strong evidence depends on the field.
The two ratings combined through an interaction-aware adjustment. Quality remains the dominant signal; the design weight nudges it up or down by at most a few points, depending on how well the two agree.
1Quality: the Q score
Q reflects how well the paper itself is executed, independent of what kind of study it is. It is built up from two parallel streams: the issues a reviewer raises, each scored by criticality, and the merits a reviewer identifies, each scored by calibre.
How seriously an issue undermines the work. Not how hard it is to fix, and not how prominent it is in the paper, but how much it bears on the validity and integrity of the contribution.
How impressive or valuable a particular strength is beyond the norms of the field. Calibre is the positive mirror of criticality: it captures what the paper does well, and how exceptionally.
Each issue and each merit is filed into one of eight categories, so the shape of a paper's strengths and weaknesses is legible at a glance.
- 01Research Design
The foundational architectural decisions: choice of methodology, study structure, selection of participants or materials, and whether the overall approach is fit for the question being asked.
- 02Data and Evidence
The raw material the work rests on: the soundness of data collection, how evidence was assembled, how things were measured, and the quality of underlying sources.
- 03Analytical Approach
What the author does with the data once it is in hand: statistical models, qualitative coding, computational pipelines, formal reasoning, or argumentative structure, both choice and execution.
- 04Scholarly Grounding
How well the work situates itself in its field: engagement with relevant literature, strength of theoretical underpinnings, proper crediting of prior work, and a clear sense of where the contribution sits.
- 05Reporting Quality
Transparency and completeness: is there enough detail (methods, data, code, justification) for a reader to understand, evaluate, and (where applicable) reproduce the work?
- 06Interpretive Rigor
The leap from results to conclusions: are claims supported by what was found, limitations honestly acknowledged, claims appropriately hedged, and have plausible alternative explanations been seriously considered?
- 07Ethical Conduct
Responsible-research dimensions: ethical treatment of subjects, informed consent, declared conflicts of interest, data integrity, and adherence to the broader norms of responsible conduct.
- 08Contribution
What the work actually adds. A paper can be technically impeccable and contribute little; another can be rough around the edges but advance understanding in important ways.
2Design weight: the D score
D reflects the evidential weight a study design carries for the paper's claims. What counts as strong evidence depends on the field: resistance to confounding in medicine, logical validity in mathematics, binding authority in law, community legitimacy in Indigenous studies. The sections that follow show the hierarchy applied to several research domains, and why that hierarchy is the right one for that kind of knowledge.
The core question differs by field
Before examining individual schemas, understand that different fields ask fundamentally different questions, and that determines which hierarchy is appropriate.
| Field | The question it asks | Hierarchy applied |
|---|---|---|
| Clinical / Health | “Does X cause Y in humans?” | Hierarchy of causal strength |
| Mathematical Sciences | “Is X necessarily true?” | Hierarchy of proof rigour |
| Physical / Chemical Sciences | “Can X be measured reliably?” | Hierarchy of experimental reproducibility |
| Social / Economic | “Does X generalise?” | Hierarchy of internal + external validity |
| Humanities / Interpretive | “Is the reading of X warranted?” | Hierarchy of argumentative quality |
| Law | “Is X binding?” | Hierarchy of legal authority |
| Engineering | “Does X work in practice?” | Hierarchy of validation rigour |
| Indigenous Studies | “Is X legitimate to this community?” | Hierarchy of relational / cultural validity |
A note on schema labels
In the list of research domains below, every discipline is assigned exactly one of three labels indicating where its hierarchy comes from.
An existing, named, published schema applied exactly as defined. The schema name and primary source are cited verbatim.
An existing named schema has been adapted for this field. All level-name mappings from the original to the adapted version are shown explicitly.
No published schema exists for this field. A hierarchy has been constructed from discipline norms to reflect the epistemic standards of the field.
Expand any domain to see its disciplines and the applicable hierarchy. Where disciplines within a domain use different schemas they appear as separate blocks.
3The adjusted score: combining Q and D
The quality score Q and the design-weight score D are combined into a single adjusted score S, also in the range 0 to 100, through an interaction-aware adjustment. The construction treats Q and D as two independent signals that interact rather than simply summing: well-executed work in a demanding design is rewarded, and poorly-executed work in a forgiving design is penalised, while off-diagonal cases (high Q with low D, or low Q with high D) receive only modest adjustments.
What the adjustment does, in plain terms
The adjustment to Q depends on how well Q and D align: they align when both are high or both are low, and pull apart when one is high and the other low. In the formula, the interaction term (s · m) grows as the two align, while the baseline term (b · (1 - m)) carries the off-diagonal cases. The four cases below show which one dominates when.
Worked example: medicine
Using the medical hierarchy as the reference, the table below shows the adjusted score S (and the size of the adjustment in parentheses) for three quality levels: strong (Q = 80), average (Q = 50), and weak (Q = 20), across all five tiers of the design hierarchy.
| Study design | D | Strong (Q = 80) | Average (Q = 50) | Weak (Q = 20) |
|---|---|---|---|---|
| Systematic review / meta-analysis of RCTs | 100 | 86.75 (+6.75) | 55.62 (+5.62) | 24.50 (+4.50) |
| Individual RCT or observational with large effect | 75 | 83.38 (+3.38) | 52.81 (+2.81) | 22.25 (+2.25) |
| Non-randomised controlled cohort | 50 | 80.00 (0.00) | 50.00 (0.00) | 20.00 (0.00) |
| Case-series / case-control | 25 | 77.75 (-2.25) | 47.19 (-2.81) | 16.62 (-3.38) |
| Mechanism-based reasoning / expert opinion | 0 | 75.50 (-4.50) | 44.38 (-5.62) | 13.25 (-6.75) |