Environmental data about local water is scattered. Most of it sits in agency databases that a regular teacher never sees. And most citizen science programs ask for gear, training, and time that a classroom does not have. The result is a gap: real water issues are happening in every Wisconsin community, but the people closest to them, teachers and students, have no easy way to collect evidence or share what they find.

That was the problem. The solution was not more content. It was a contribution mechanism.

Most environmental education inspires based on learning the facts of the tangled interactions of species across so many environments. This project made a different bet to act on inspiration. If you lower the equipment bar far enough, any classroom can become part of a real data network. If you give them a place to post, a library builds itself. And if you align the whole thing to teachers, they share with each other to keep the project useful year after year.

The project’s connection to community was direct. Impervious-surface runoff, road salt, leaf-tea nitrates, microplastics. These are not abstract topics. They are in the storm drains behind and in front of the school. When a student sweeps a parking lot and posts what they find, they become part of a real investigation that connects their street to their watershed.

This is one of many examples from Travis's earlier leadership roles in science partnerships, the kind of dynamic, interactive work STEMsaic grew out of.

He collaboratively designed two things here. First, a launch protocol simple enough for anyone. The "Locate, Sweep, Snapshot" method lets a teacher run a real water-runoff investigation with just a broom, a clear container, and chalk in a parking lot. No special gear. No training day. Second, a contribution system. He designed the SIFTR (Field Day Lab (discontinued) geo storytelling platform) posting categories: activities, student data, professional data sources, volunteer support, social-studies stories. Teachers contribute to one shared statewide map and a DPI-WI hub. He worked with DPI-WI Science Leaders to align the whole thing to Wisconsin Standards for Science and the NGSS science-and-engineering practices, so every contribution plugs into K-12 use.

The statewide water network created a shared teacher and water expert infrastructure that any Wisconsin educator could join. One map and one protocol as the entrypoint. One set of posting categories. The categories were designed so teachers could share activities, students could share data, and water stewards could add professional sources. A middle schooler posting a parking-lot runoff photo and a USGS hydrologist posting a gauge link end up in the same library, all the contributions were valuable.

The "Locate, Sweep, Snapshot" protocol became the entry point. A teacher who has never done citizen science can run it this week. All they need is chalk, a broom, and a clear container. Sweep the parking lot. Collect what flows into the drain. Take a photo. Post it to contribute to the data for group analysis. A classroom that did nothing last year is now part of a statewide water-quality conversation.

The project expanded to eight Wisconsin counties. Over 120 water-research and education connections were posted to the shared map. The approach was featured in the first annual Wisconsin Water Week in March 2021. The shared library grew to 60 or more aligned resources, and it kept growing because the contribution mechanism was open. The heroes are the Wisconsin teachers and youth scientist teams who ran the protocol, the water stewards who added professional data, and the students who posted their data and analysis from their own schoolyards. Travis designed the system that made their contributions stack and scale.

That experience is one of thousands that informs STEMsaic. If your region has a scattered community of educators, scientists, and local experts, you have the same challenge Wisconsin did. STEMsaic can partner with you to design the contribution mechanism: a protocol simple enough for anyone, a shared place to post, and an alignment structure that keeps the contributions useful. Your network builds itself based on the experts that collide (these collisions do need continuous support). The client lesson from this work is direct: to scale across a region, design the contribution mechanism, not just the content. Lower the equipment bar and facilitate the entrypoint so anyone can join and be part of a science community that extends their interests.

A side note for anyone following the STEMsaic story: the parking-lot sweep links to larger questions about what enters watersheds, including microplastics. That thread continues in the NOAA Microplastics work STEMsaic is doing now.

Made Possible is a public series from STEMsaic Research Impacts. We help research teams reach the audiences who matter most, including the ones contributing data from parking lots. This was made possible. Here is what we could make possible together.

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