How We Think.
How We Work.

The question isn't whether something is living in your yard. It's whether what's living there is healthy.

Most conventional landscapes aren't. They look maintained — mowed, fertilized, treated — but that maintenance is the problem, not the solution. Spray for mosquitoes, fertilize the lawn, apply fungicide, hit the weeds with herbicide. Repeat every season. It's a yard on life support: constantly requiring inputs because the underlying system is too impoverished to function on its own.

And the pest logic runs backward. Japanese beetle traps, wasp nests knocked down, grub treatments, slug bait — all of it targets symptoms of an ecosystem out of balance. A yard with healthy native plant communities attracts parasitic wasps, frogs, ground beetles, and birds that handle pest pressure naturally. I have fewer problems with wasps now than I ever did with a lawn. When you give them what they actually need — native flowers, nesting sites, water — they stop climbing into your drinks. They have somewhere better to be.

Native plant design starts from a different premise: work with what the land wants to do, and it stops needing medicine.

How I Design

Every project starts with observation. Before a plant list or a design, I read the land — where water moves, where light falls, what's already growing, what the soil is telling me. A design that ignores those conditions fights the site forever. One that works with them gets easier every year.

From there, the approach varies by site and by client. Some spaces call for a dense, layered planting — grasses and sedges knitting the bed together, with flowering natives woven through in drifts. Others call for something that reads more like a traditional garden: defined beds, familiar structure, natives doing the ecological work quietly underneath. I don't have a house style I impose on every yard. What I do have is a commitment to using plants that belong here — and designing something that will genuinely thrive, not just survive.

Everything I install is regionally sourced — Ohio ecotypes when possible, always Northeast Ohio-appropriate species. A native plant from the wrong region is genetically disconnected from local insects. Specificity matters.

A single suburban lot doesn't look like much in isolation. But Summit County has roughly 130,000 households. If even a fraction of those yards shifted from lawn to native plantings, the cumulative effect on local watersheds, insect populations, and bird habitat would be measurable — and significant.

That's the argument Doug Tallamy makes, and it's the one I find most compelling. What we plant determines what can live. Native oaks support over 500 species of caterpillars.¹ A Bradford pear supports fewer than five. Those caterpillars are the base of the food web — almost every terrestrial bird species relies on them to raise young, even species we think of as seed eaters. No caterpillars, no birds. It's that direct.

Lawn occupies more acres in the United States than any single agricultural crop.² It provides almost nothing to the ecosystems it replaced. It requires more water, more chemicals, and more fuel to maintain than any other ground cover we've invented. And when it rains, it drains — carrying fertilizer and pesticide residue off lawns, down storm sewers, and into the Cuyahoga River watershed. That runoff doesn't stop at the county line. It continues north into Lake Erie, where excess nitrogen and phosphorus from lawn fertilizer is one of the primary drivers of the harmful algae blooms that close beaches and put drinking water at risk every summer.³ If you've ever driven up to Kelleys Island or Put-in-Bay and found the water off-limits, lawn fertilizer is part of that story.

There's a carbon dimension that rarely gets talked about. A well-established native prairie planting sequesters roughly one ton of carbon per acre per year — stored in root systems that extend ten feet or deeper into the soil. That's comparable to a forest, but more reliable: because the carbon is underground rather than in above-ground biomass, it isn't released when fire, drought, or disease hits. A forest can go up in smoke and return its stored carbon to the atmosphere in days. A prairie's carbon stays put.⁵

And if you have moss growing in a shady corner of your yard and you've been treating it as a problem — don't. Moss is one of the most efficient carbon-capturing organisms on earth, storing more per square meter than almost anything else that grows. It holds moisture in the soil, buffers temperature at ground level, and provides habitat for the micro-invertebrates that are the foundation of healthy soil biology. Under a magnifying glass it looks like a miniature old-growth forest — individual stems, tiny leaves, spore capsules rising on hair-thin stalks. The instinct to rake it out or kill it with lime is one of the stranger things we've inherited from conventional lawn culture.

A native planting does the opposite of all of this. Deep roots hold water in the soil. Dense plant communities slow runoff before it reaches pavement. A well-designed rain garden can capture and infiltrate 30% more stormwater than a comparable area of lawn.⁴ The yard stops being part of the problem and starts being part of the solution — not symbolically, but hydrologically.