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I Wrote Research Papers Faster Using This 4-Step System (Anyone Can Do It)

Andy Stapleton·
6 min read

Based on Andy Stapleton's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

Start by crafting a research question that is clear, concise, open-ended, and narrow enough to fit the project timeline while still being broad enough to sustain meaningful research.

Briefing

A strong research paper starts with a research question that is clear, concise, open-ended, and—crucially—answerable within a specific time window. The process begins by shaping that question into its “purest” form: narrow enough to stay focused, broad enough to allow meaningful exploration, and supported by the existence of credible, accessible sources. Questions that can be answered with a single fact, that invite yes/no responses, or that are impossible to tackle within a semester (or too small to sustain a multi-year project) are treated as common failure points. The goal is to land in a “Goldilocks zone” where there’s enough literature to investigate a gap, but not so much scope that the work becomes unmanageable.

From there, research splits into two practical tracks. For many undergraduate assignments, the work often becomes a structured synthesis—essentially a meta-analysis of existing studies—where the “new” contribution is the framing and interpretation built from the literature. For projects aiming at novel results, the research stage includes generating new information through field-specific methods (such as lab experiments, sample creation, testing, and data reporting). Regardless of track, the workflow follows a familiar pattern: find literature, filter it, read a targeted subset (about 20–25% of the most relevant items), and map concepts and gaps. To speed this up, the system leans on citation management (Zotero) and discovery tools (including Google Scholar, Google Scholar Labs, SciSpace, Research Rabbit, Connected Papers, and others). It also uses AI-assisted filtering and sense-making—such as NotebookLM—to query a research question against a body of papers, then generate a mind map from a curated set (up to 50 papers in the described setup, or more with a paid tier).

Once the question and evidence are locked in, writing and citing follow a structured approach that prioritizes results and discussion before the abstract. The core technique is to build the paper claim-by-claim (or figure-by-figure): each figure or claim is treated as a “unit” that gets explained, its implications spelled out, and then tied back directly to the research question. This repeated loop—figure/claim → meaning → implications → relationship to the problem—creates a coherent narrative without losing sight of the central aim.

The introduction then uses an “inverse triangle” structure: start broad with general background, narrow to literature closest to the specific question, and end at the pointy end where the gap and problem become explicit. Conclusions and abstracts come after, with the conclusion framed as a sentence-level checklist: state the solved problem, summarize how it was addressed, present evidence and key takeaways (often with specificity), articulate implications, and close with limitations and directions for further work. The abstract is built with a sentence template as well—context, what’s known, the gap, how the work was done, and the main findings and implications.

Finally, the system insists on review as a separate step: an AI-assisted review pass (examples include Thesify, ChatGPT, Claude, Perplexity, Gemini, and Paper Wizard) to flag missing citations and unsupported claims, followed by manual review for logic and flow, and—when possible—peer review to catch blind spots that close reading misses. The four-step system is straightforward: research question → research → write and cite → review, with AI tools used to reduce friction while keeping the argument grounded in evidence.

Cornell Notes

The four-step writing system centers on a research question that is clear, concise, open-ended, and realistically answerable within the project’s time limits. Research then proceeds in two modes: synthesizing existing literature (common in undergraduate work) or generating new results through experiments and data collection (common in novel projects). Writing and citing are organized around “units” of evidence—figures or claims—explained and interpreted, then repeatedly tied back to the research question; the introduction follows an inverse-triangle structure from broad background to a specific gap. Conclusions and abstracts use structured sentence checklists, and the final quality pass combines AI review (for missing evidence/citations) with manual and peer review (for logic, flow, and overlooked errors).

What makes a research question “good” in this system, and why does scope matter so much?

A good question is clear and concise, focused on one specific topic, and open-ended (not yes/no). It should avoid questions answerable by a single fact because that defeats the purpose of research. Scope must fit the time horizon: if the work is only a few weeks, the question can’t be bigger than what can be addressed in that window; if it’s too narrow, it won’t support the depth needed for longer projects. The question also needs enough credible, accessible sources to make investigation feasible and to reveal a gap that can be filled or tested.

How does the research stage differ between undergraduate papers and projects aiming for novel results?

For many undergraduate “research papers,” the main task is synthesizing existing literature—often described as a meta-analysis—where the novelty comes from new interpretation and framing built from what’s already known. For novel research projects, the stage includes generating new information through field-specific work such as lab experiments: creating samples, testing them, analyzing data, and reporting results. In both cases, the workflow includes finding literature, filtering it, reading a targeted portion of the most relevant papers (about 20–25%), and mapping concepts and gaps.

Which tools are used to speed up literature discovery and filtering, and what do they do?

Citation management is handled with Zotero. Literature discovery is supported by tools such as Google Scholar (including Google Scholar Labs), SciSpace, Research Rabbit, Connected Papers, and others mentioned in the transcript. Filtering and sense-making are supported by NotebookLM, where the research question can be queried to surface relevant literature and generate a research mind map from a curated set of papers (up to 50 papers in the described setup, or more with a paid tier).

What’s the recommended structure for writing the results/discussion sections?

Results and discussion are built around evidence units—figures in sciences or claims in other fields. Each figure/claim is explained, its implications are stated, and then the discussion is explicitly tied back to the research question. The process repeats for every figure/claim, creating a cumulative argument that stays anchored to the problem the paper is trying to solve.

How should the introduction narrow from general background to the specific gap?

The introduction follows an inverse triangle. It starts broad with general literature and background about the field, then narrows to studies most directly related to the research question, and ends at the pointy end by highlighting the specific problem or gap the paper addresses. This structure sets up the results/discussion by making the “establishing shot” clear before details arrive.

What does a strong review workflow look like here?

Review happens in two layers. First is AI review using tools such as Thesify, ChatGPT, Claude, Perplexity, Gemini, and Paper Wizard to identify unsupported statements and missing citations. Then comes manual review to check logical flow and whether arguments are backed by real references and data. Peer review is recommended when possible—sending the draft to classmates, lab members, collaborators, or field experts to catch errors that someone close to the work might miss.

Review Questions

  1. What characteristics should a research question have to avoid being unanswerable, unmanageable, or trivial?
  2. How does the “figure/claim → implications → tie back to the research question” loop improve coherence in results and discussion?
  3. Why combine AI review with manual and peer review rather than relying on one method alone?

Key Points

  1. 1

    Start by crafting a research question that is clear, concise, open-ended, and narrow enough to fit the project timeline while still being broad enough to sustain meaningful research.

  2. 2

    Use the research stage to either synthesize existing literature (often for undergraduate meta-analyses) or generate new results through experiments, testing, and data reporting (for novel projects).

  3. 3

    Speed up literature discovery and organization with tools like Zotero for citations and platforms such as Google Scholar, SciSpace, Research Rabbit, and Connected Papers for finding relevant work.

  4. 4

    Filter and interpret sources by querying the research question in tools like NotebookLM, then map concepts and gaps using generated mind maps from a curated set of papers.

  5. 5

    Write results and discussion by building the paper unit-by-unit—each figure or claim gets explained, its implications stated, and its relevance tied back to the research question.

  6. 6

    Structure the introduction as an inverse triangle: broad field background, then narrower literature directly related to the question, ending with the specific gap or problem.

  7. 7

    Treat review as a separate step: run AI checks for missing evidence/citations, then do manual logic/flow review and seek peer feedback when possible.

Highlights

A research question must be open-ended and answerable within the time limit; both overly broad and overly narrow questions derail the entire project.
Results and discussion should be assembled figure-by-figure (or claim-by-claim), with each unit’s implications explicitly tied back to the research question.
The introduction uses an inverse triangle—broad background to narrow literature to the specific gap—so the results section has a clear “establishing shot.”
Quality control combines AI review (to flag missing citations and weak support) with manual and peer review (to catch logic and blind spots).

Mentioned