Editorial cover image for Figma for Scientists: A Surprisingly Good Workflow for Lab Graphics
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Figma for Scientists: A Surprisingly Good Workflow for Lab Graphics

SA
Shobajo AbdulAzeez
8 min read1,687 words
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Why Figma for Scientists Is Worth Taking Seriously

If you have spent any time making figures for a manuscript, you know the pain. You export a chart from Python, paste it into PowerPoint, nudge it for twenty minutes, send the file to a collaborator, and then receive a version back where every font has changed. Sound familiar? Figma for scientists offers a real alternative to that cycle, and it is more capable than most researchers expect.

Figma is a browser-based design tool built for interface designers, but its core features map surprisingly well onto scientific figure work. Real-time collaboration, a robust component system, and shareable templates mean a research team can maintain visual consistency across dozens of figures without a dedicated graphic designer on staff.

Figma for scientists showing a multi-panel research figure layout with labeled axes and color-coded data series
Photo by Edward Jenner on Pexels, via Pexels

This guide is practical and opinionated. We will cover what Figma does well for lab graphics, where it falls short, and how to build a workflow that your whole team can actually use. We will also look at when a purpose-built tool like Graffiy makes more sense than a general-purpose design app.

Collaboration: The Feature That Changes Everything

Most scientific software is built for one person sitting at one computer. Figma flips that assumption entirely. Everyone on your team works in the same file at the same time, and changes appear instantly for every viewer. No more emailing ZIP archives of Adobe Illustrator files.

For a lab with multiple graduate students and a PI who needs to review figures before submission, this is a real improvement. A student can be building a graph layout while the PI adds comments directly on the canvas. Those comments are pinned to specific elements, so feedback is never ambiguous. You always know exactly which axis label or color choice someone is questioning.

Version history is built in and automatic. If a collaborator accidentally deletes a carefully constructed figure panel, you can restore any previous state with a few clicks. This alone eliminates a category of minor disasters that plague shared manuscript files.

Figma also supports granular permissions. A lab can invite external collaborators, like a statistician or a journal editor, with view-only access. They can leave comments without being able to edit anything. That boundary matters when you are sharing unpublished data.

Screenshot of a Figma workspace showing multiple team members editing a scientific poster layout simultaneously with comment threads visible
Photo by Matheus Bertelli on Pexels, via Pexels

One honest limitation: Figma requires a stable internet connection. If you are writing up results on a train with spotty WiFi, you will hit friction. The desktop app caches some data, but it is not a fully offline experience. For most lab environments this is a minor issue, but it is worth knowing upfront.

Components and Reusable Elements for Research Teams

The component system is where Figma starts to feel genuinely powerful for scientific work. A component is a reusable design element. You create it once, and every copy across your entire file stays linked to the original. Change the master, and every instance updates automatically.

Think about what that means for a lab with a house style. You create a master color palette component, a standard axis label style, an icon set for your cell types or chemical structures, and a figure caption text block. Every researcher on the team pulls from those same components. Your figures look cohesive without anyone having to remember which shade of blue you agreed on six months ago.

Components also support variants. You might have a chart frame that comes in three sizes: single column, double column, and full-width, matching common journal format requirements. Instead of rebuilding the frame each time, researchers pick the variant they need and drop it onto the canvas. The structure and styling are already correct.

For labs that publish across multiple journals with different figure specifications, this matters enormously. Nature's figure formatting guide specifies exact width requirements and resolution standards that differ from those of other publishers. You can encode those specs directly into your Figma components, which makes submitting to different journals far less error-prone.

Auto-layout is another feature worth learning. It lets you build figure panels that resize gracefully when content changes. Add a new legend entry and the surrounding box expands to fit. Rearrange panels and spacing adjusts automatically. Once you understand how auto-layout works, you will stop manually nudging elements to stay aligned.

Building Reusable Templates for Common Figure Types

Templates in Figma are just files you duplicate. But when those files contain well-structured components and thoughtful page organization, they become genuine productivity tools for a research group.

A useful starting point is building one template file per figure category. Consider these common categories: flow charts and experimental diagrams, multi-panel data figures, graphical abstracts, conference poster layouts, and presentation slide decks for lab meetings. Each template file contains the relevant components, a style guide page, and a few example layouts that researchers can adapt.

When a new lab member joins, you share the template library with them. They open it, duplicate the frame they need, and start working within a structure that already meets your lab's standards. Onboarding time for figure-making drops significantly.

Styles are another part of the template system worth setting up early. Figma lets you save named colors, text styles, and effect styles at the file level. Once defined, these appear in a panel that any team member can access. Consistency becomes the default rather than the exception.

One practical tip: keep your master template file locked. Only one or two people in the lab should have edit access to the canonical templates. Everyone else works in duplicates. This prevents the slow drift that happens when people start modifying shared resources without coordination.

Where Figma Struggles with Scientific Graphics

Figma is honest about what it is. It is a design and prototyping tool, not a data visualization or scientific illustration platform. That distinction matters.

You cannot generate a plot from raw data inside Figma. You will always be importing charts from R, Python, or another tool and then refining them visually. That import step adds friction. Exported SVGs from matplotlib or ggplot often carry quirks like grouped elements with inconsistent naming that make them harder to edit in Figma than expected.

Specialized scientific symbols, molecular structures, and certain diagram types require either importing from external tools or drawing manually. For complex structural biology illustrations or detailed anatomical diagrams, Figma can feel like the wrong tool for the job. It works well for layout and annotation but less well for intricate technical drawing.

Font rendering and export settings also require attention. Journals typically want figures at 300 DPI or higher. Figma exports raster images at set resolutions, and you need to use the export multiplier feature carefully to hit the required resolution for print. Vector export via SVG or PDF avoids this issue for most figure types, but embedded raster elements within your figure still need to be high-resolution before you bring them in.

These are not dealbreakers. They are just constraints to plan around. Many research teams find that Figma handles the composition, annotation, and styling layer while other tools handle data rendering. That split workflow is very functional once you establish clear conventions.

When to Use Graffiy Instead of Figma

Figma is a general-purpose tool that happens to work reasonably well for scientists. Graffiy is built specifically for scientific communication, which means certain tasks are dramatically faster and more accurate from the start.

If your work involves generating polished scientific figures directly from concepts, creating AI-assisted illustrations of biological processes, or producing publication-ready graphics without a design background, Graffiy is the more direct path. You do not need to build a component library from scratch or learn the nuances of auto-layout. The platform understands scientific context in a way that a general design tool cannot.

The two tools are not mutually exclusive. Some teams use Graffiy to generate primary scientific illustrations and then import those assets into Figma for final layout and collaboration with non-scientist stakeholders. That combination gives you the best of both approaches.

If you want to see what AI-assisted scientific design actually looks like in practice, create with Graffiy and bring your results into whatever layout tool fits your team's workflow.

Side-by-side comparison showing a raw matplotlib chart export next to a polished, publication-ready version refined in a design tool, demonstrating the value of a visual finishing
Photo by RDNE Stock project on Pexels, via Pexels

A Practical Starting Point for Your Lab

Getting started with Figma as a research team does not require a big rollout. Start small and let the workflow grow.

First, create a shared team workspace. Invite the people who regularly make figures. Then build a simple style guide file: your lab colors, your preferred fonts, and a few text styles. This alone takes about an hour and immediately starts paying off.

Next, build one template for the figure type your lab makes most often. If it is multi-panel data figures for papers, start there. Get that template solid before building more.

Run a short session with your team to walk through the basics: how to duplicate a frame, how to use components from the library, and how to leave comments. Thirty minutes of shared learning prevents a lot of confusion later.

Iterate. The first template will not be perfect. As your team uses it, you will find things to adjust. That is normal. The component system means you can update the master and have improvements flow through to everyone's work automatically.

Scientific communication is getting more visual, not less. Journals want graphical abstracts. Funding agencies want clear diagrams. Conference presentations need to stand on their own. Building a design workflow that your whole lab can contribute to is not optional anymore. It is part of how good science gets communicated.

Figma for scientists is a genuinely useful tool when you approach it with realistic expectations and a bit of upfront structure. Pair it with purpose-built tools where they shine, and your team's figures will be better and easier to produce than anything you have managed before.

Frequently Asked Questions

Is Figma for scientists a realistic tool choice, or is it built only for designers?

Figma for scientists is a realistic and increasingly popular choice for research teams producing figures, posters, and graphical abstracts. The learning curve is moderate, and many features like real-time collaboration and reusable components are directly applicable to scientific figure workflows. You do not need a design background to get meaningful value from it, especially if your team sets up shared templates and a style guide from the start.

Can Figma generate plots and charts directly from data?

No, Figma cannot generate data visualizations from raw data. You will need to create your charts in R, Python, or another tool and then import them as images or SVG files into Figma for layout and annotation. This two-step process is a genuine limitation, but many teams find the visual refinement and collaboration features worth the extra import step.

What resolution should I use when exporting Figma figures for journal submission?

Most journals require figures at 300 DPI or higher for print. When exporting raster images from Figma, use the export scale multiplier to achieve the correct pixel dimensions for the required print size and resolution. Exporting as PDF or SVG avoids resolution concerns for vector-based figures, but any raster elements embedded in your design need to be imported at sufficient resolution before export.

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