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Use when deciding what characterization and experimental detail an Advanced Materials manuscript must show to prove its structure–property claim, and what belongs in the Experimental Section and Supporting Information. Partitions and stress-tests methods; does not design figures or run analysis.
Passed 21 of 22 test cases with the skill, and 17 of 22 without it.
and 2 more in the full report
4 fixed17 passed either way1 still failing0 broke
Tokens, turns and time describe resource use, not a dollar price.
One of 4 test cases the skill fixed. Same model, same prompt, with and without the skill.
We are preparing a paper on a lithium-sulfur battery anode for Advanced Materials. We currently claim record capacity retention based on our hero cell, but we haven't organized our experimental details between the main text and SI yet, and we want to ensure our structural and compositional claims are properly supported. Evaluate our draft and return your assessment strictly under these headers: 【Central material claim】 【Triangulation】 【Morphology statistics】 【Benchmarking vs. SOTA】 【Metric statistics】 【Reproducibility】 【Next】
| Checked | Without skill | With skill |
|---|---|---|
| The response flags hero cell metric statistics as needing a fix. | Passed | Passed |
| The response requires mean and standard deviation over sample count n for reported metrics. | Passed | Passed |
| The response includes advmat-figures under the Next header. | Missed | Passed |
The instructions your model reads when the skill loads.
An Adv. Mater. claim about a material must be triangulated by complementary techniques, not asserted from one. A single XRD pattern or one TEM image is rarely enough; referees expect the structure–composition–property picture to close from several independent angles.
A practical characterization matrix (adapt to your material class):
| Claim you are making | Do not rely on one technique — triangulate with |
|---|---|
| Crystal structure / phase | XRD (+ Rietveld) and electron diffraction (SAED) / HRTEM lattice |
| Morphology / size / architecture | SEM and TEM (+ statistics over many particles, not one hero image) |
| Composition / oxidation state | XPS and EDS/EELS mapping and ICP-MS/AES for bulk stoichiometry |
| Local bonding / defects | Raman / FTIR / XAS (XANES/EXAFS), NMR where applicable |
| Optoelectronic property | UV-vis / PL / TAS + the transport or device measurement it predicts |
| Electrochemical performance | CV + galvanostatic cycling + rate/stability data + post-mortem analysis |
State uncertainties and sample counts. "n = 3 devices, mean ± s.d." beats a single best cell.
Adv. Mater. device claims live or die on fair comparison to the state of the art. Put the comparison in the paper, on equal footing:
| Detail type | Main text / Experimental Section | Supporting Information |
|---|---|---|
| Core synthesis route + key parameters | Experimental Section (reproducible) | full optimization sweeps |
test cases passed, vs 17 / 22 without
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