/create-results-discussion
The heart of the paper. This is where the idea that started the research gets proved, and it is the section where how you write changes whether the paper is accepted, independently of how good the results are.
Write this section first in the paper. The course's writing order starts here, once the figures are chosen, because every other section is shaped by it.
Before anything else
- Load the style rules. Invoke
paper-writing-styleand readreferences/human-voice.mdandreferences/latex-conventions.md. If absent, use the condensed rules at the bottom. - Lock the language. Language of the user's first message, for the whole run, no switching. Output LaTeX is always English.
- Read the context. Find
.texfiles, the.bib, existing figures and captions, and any data files or tables. Detect the citation style.
There is no single model, and that is the point
Unlike the abstract and the introduction, this section has no fixed structure, because journals differ: some separate results, discussion and conclusions into three sections, some merge results and discussion, some merge discussion and conclusions. Ask which arrangement the target journal uses before drafting, and say what you assumed if the researcher does not know.
What is stable is the structure of each result block.
The four information classes, per result
Every result, figure or table gets a block built from these four:
| Class | Carries |
|---|---|
| Background | Why this analysis matters, reminding the reader what it is for |
| Description | What the figure, table or measurement actually shows, with values |
| Interpretation | The plausible explanation for what was observed |
| Comparison | How it relates to similar or prior results, with citations |
A worked example from the literature, colour-coded in the course:
[background] Cycling performance is a critical parameter for supercapacitor electrodes. Excellent cycling stability is crucial for real supercapacitor operation. [methods] The cycling test for all electrode systems used 3000 cycles at 1,A,g$^{-1}$. [description] Figure~4 shows 93%, 96% and 95% of capacitance retained over 3000 cycles of charging and discharging for the GM, GMC and GMP based electrodes, respectively. [comparison] All three electrode systems demonstrate much better cycling performance compared to that reported in previous work, typically 75 to 85% retention over 1000 cycles \citep{ref13,ref21}. [interpretation] This is attributed to the hierarchical structures of the graphene and MnO$_2$ textiles.
Not every block needs all four. Description is mandatory; a result stated without interpretation or comparison is a data dump.
Topic sentences
Open each paragraph with a sentence carrying the topic (as a keyword) and the message (what is claimed about it). Every following sentence relates to one or the other. When either changes, the paragraph ends. This is also how you decide paragraph length, and it is the cleanest way to open a paragraph that describes a figure.
Example of a topic sentence opening a figure description:
When the materials from which the spheres were made were charged at different rates, structures of different morphologies formed during charging.
Topic: spheres made of different materials. Message: different charging rates produce different morphologies. Everything after it details that claim, then the paragraph ends when the next figure begins.
Workflow
1. Gather the material
You need the actual results. Accept figures, tables, data files, a draft, or a description. Read everything given.
Ask for the figure list first, in order. The course is explicit that figure selection precedes writing: the figures tell the story and the text supports them. If the researcher has not chosen and ordered their figures, that is the first thing to settle.
2. Interview
Batches of at most four questions. For each result or figure, you need:
- What it shows, with real values. Never estimate a number from a figure description.
- Why the analysis matters, for the background sentence.
- The interpretation. What explains the observation? This is the researcher's scientific judgement and you must not supply it.
- Prior work to compare against, with citation keys and their values where possible.
Also settle:
- The journal's section arrangement, as above.
- Which result is the principal finding. It gets the most space and drives the conclusions.
- Whether some results belong as text rather than figures. A single value such as
the film thickness was estimated at 10\,nm by AFMdoes not need a figure, and journals often cap the number of display items. - Constraints: figure count limits, word limits.
3. Draft
Emit one LaTeX fragment per result block, labelled with the information classes:
\subsection{Cycling stability}
% BACKGROUND
Cycling performance determines whether an electrode is viable in a working device.
% DESCRIPTION
Figure~\ref{fig:cycling} shows 93\%, 96\% and 95\% capacitance retention over 3000
charge-discharge cycles for the GM, GMC and GMP electrodes, respectively.
% COMPARISON
These values exceed the 75 to 85\% retention over 1000 cycles reported for comparable
composites \citep{ref13,ref21}.
% INTERPRETATION
We attribute this to the hierarchical structure of the graphene and MnO$_2$ textiles, which
accommodates volume change during cycling.
Show it in chat. State which class each block is missing, if any, and why.
4. Write the figure captions
Captions are part of this section's job and the course is emphatic that good journals expect elaborate ones. Rules:
- A caption must be self-contained. Someone in the field looking only at the figure and its caption should understand why the result matters, without going to the text.
- Never merely name the axes. "Capacitance versus cycle number" is not a caption.
- Do not duplicate the body text. Balance what goes in each; overlap wastes space in a section where space is scarce.
5. Check and refine
Ask what to change. Expect the interpretation to be corrected: it is the researcher's science, not yours. Show the full fragment each round.
6. Connect back to the introduction
Before finishing, check that every relevance claim, gap and state-of-the-art reference in the introduction has its counterpart here. The two sections must be tightly connected. If the introduction does not exist yet, note what it will have to set up.
7. Offer to write it out
Only after approval.
Hard rules
- Never invent, estimate, or infer a numerical result. Not from a figure, not from a trend, not
from context. Every value comes from the researcher or from a file you read. Otherwise
% TODO: value needed. This is the section where fabrication does the most damage. - Never supply the interpretation yourself. You may draft the sentence once the researcher has given you the explanation. Proposing a mechanism they did not propose is inventing science.
- Never invent a citation key for a comparison.
- Never emit an em dash (
---).--only in numeric ranges. - Past tense for what was done and observed. Avoid stacked passive voice, which accumulates here more than anywhere else.
- Modern journals prefer assertive phrasing over hedged constructions such as
it may be possible that this could suggest. Choose one hedge or none. Do not overclaim either: keep the hedge the researcher's evidence supports. - Cut
carefully,successfully,it is important to note that, and any sentence that would fit unchanged in a different paper.
Condensed style rules, if paper-writing-style is not installed
Clarity and concision govern. One idea per sentence. Be specific. Put the action in the verb. Cut
redundancy and anything the editor already assumes. Prefer plain words: use over utilization,
most over the majority of, because over due to the fact that. Avoid delve, harness,
leverage, underscore, pave the way, crucial role. Keep however, moreover, in contrast,
in summary: correct register, not filler. Never stack passive voice. Vary sentence openers. Every
it and this needs one referent. Thin space between quantity and unit (10\,nm), escape \%,
use Figure~\ref{} with a non-breaking space.