Research design, made explicit

AI that helps you design research,
not just run it.

Turn a research question into an influence network you can argue with β€” then find out what your study can actually detect, what your data can actually measure, and what got left out along the way.

Open the App β†’ Browse sample studies

Free to try Β· Read the 5-minute guide

AI automates the analysis.
But who designs the study?

The decisions that determine what a study can discover are made before any analysis begins β€” and they are usually made implicitly.

πŸ”

A mis-specified model can't be rescued

No statistical method fixes a study that asked the wrong question or missed a confounder. Design errors are permanent β€” they bound what the study can find.

🧠

Expertise is siloed

Real problems span disciplines. No individual commands the breadth to name every relevant mechanism across entomology, hydrology, remote sensing and epidemiology at once.

πŸ“‹

Design decisions go unrecorded

Months of literature review and scoping collapse into a methods paragraph. What was considered and rejected β€” the roads not taken β€” is almost never written down.

Three projections, each one lossy
β€” and each one recorded

A research design is a series of narrowings from the world to what you can measure. ResearchArchitect makes each narrowing explicit instead of silent.

From a question to a design you can defend

You supply the research question, your data, and the scope of the study. The system proposes the influence network; you correct it. Every variable, every link, and every judgement about what falls inside or outside the study is something you can point at, disagree with, and change.

What you end up with is a design that knows its own boundaries: which relationships matter most, which are observable within your window, and which were deliberately set aside.

How it works, step by step β†’
1 Research question β€” broad, cross-domain exploration
↓
2 Influence network β€” proposed, then refined by you
↓
3 Edge importance β€” necessary, driving, or modifying
↓
4 Scope β€” what can vary in your window and extent
↓
5 Data coverage β€” what your data can actually measure
↓
6 Hypotheses β€” testable, and honest about their limits

Open a real study in the workspace

These are not screenshots. Each one loads into the app itself, with the same tools and the same symbology β€” refine it, re-run an analysis, or fork it into a study of your own.

34 nodes Β· 76 edges
Vector ecology
Dry-season Anopheles stephensi larval productivity
An urban malaria vector breeding in construction pits and birka cisterns. The most complete sample: scope assessed against a dry-season window, data coverage rated against 0.3 m imagery and site surveys, and 15 generated hypotheses.
Open in the workspace β†’
51 nodes Β· 121 edges
Regional economics
Carlton County housing and labor
The largest of the samples, grown from 20 nodes to 51 through refinement. Housing supply, second-home demand and construction labour, with genuine feedback loops β€” price feeding affordability feeding demand.
Open in the workspace β†’
24 nodes Β· 30 edges
Epidemiology
Zika transmission in MΓ©rida, Mexico
Rainfall, temperature and household water storage through larval habitat to human infection. Includes a literature review attached to the rainfall β†’ larval habitat link, citing eight sources.
Open in the workspace β†’
20 nodes Β· 30 edges
Vector ecology
Aedes aegypti indoor resting height
A deliberately narrow question β€” where inside a house mosquitoes rest, which determines whether indoor spraying reaches them. Twelve variables bear directly on the outcome.
Open in the workspace β†’
20 nodes Β· 23 edges
Agriculture
US corn acreage
Ethanol policy, price and yield expectations, input costs and prevented-planting risk feeding into one planting decision. The most compact of the samples, and a useful contrast to the site-level studies.
Open in the workspace β†’

Built by researchers, for researchers

ResearchArchitect comes out of work on GeoAI, causal inference and autonomous geographic information systems, and is developed alongside active field studies in vector-borne disease.

Start with a question you actually have.

Open a sample study to see the shape of it, or begin with your own research question and work outward.