(Photos courtesy of Richesin Engineering LLC)
Every summer in Central Oregon, smoke columns rise and a different kind of infrastructure gets built almost overnight. An incident command post appears in a fairground, a ranch field, or a gravel lot at the edge of the burn. Within hours, an empty pasture becomes a small city — hundreds of firefighters, a dozen agencies, supply and medical units, and the planning teams that coordinate all of it. And every one of those functions now runs on data.
That’s the part the public rarely sees. Modern wildfire response is as much an information operation as a physical one. Crews depend on real-time mapping and GIS, weather feeds, aircraft and aviation coordination, resource and asset tracking, electronic check-in and timekeeping, and secure communication between the fireline and the agencies funding the effort. When that connectivity falters, decisions slow down. On a fast-moving fire, slow decisions cost time, money, and sometimes safety.
The Problem: Fires Don’t Burn Where the Infrastructure Is
The locations that need the most reliable communications are the ones least likely to have any. Fire camps land in remote terrain — canyons, timber, high desert — where there was never much coverage to begin with. The cellular signal that does exist is often weak, blocked by topography, or instantly overwhelmed when a few hundred personnel and their devices arrive in the same square mile. In the worst cases, the fire itself has already damaged the towers and fiber that a community relied on.
Satellite has changed that picture, and low-earth-orbit systems like Starlink have made backcountry connectivity dramatically more accessible. But a single satellite link is not a complete answer. A dish can be obstructed by smoke, dense canopy, or weather. A storm cell or a power hiccup can drop it at the exact moment an incident management team is pushing a critical update. Relying on any one path — one carrier, one dish, one circuit — means accepting a single point of failure in an environment that punishes single points of failure.
The Engineering Answer: Resilience Through Bonding
The approach we’ve built our fireline work around is link bonding: combining several independent connections — multiple cellular carriers plus one or more satellite paths — into a single, resilient pipe. Instead of asking which connection is best, bonding uses all of them at once. If one path degrades or drops, traffic shifts to the others without anyone in camp noticing. The result is an internet connection that behaves less like a fragile lifeline and more like a utility.
That resilience is what makes the rest possible: Wi-Fi distributed across a camp so finance, logistics, and planning sections can all work; secure, segmented networks that keep operational traffic protected; and enough aggregate bandwidth to move maps, imagery, and video rather than just text. We monitor these deployments remotely from our network operations center, so a problem can often be diagnosed and corrected before the people on site even file a ticket.
Just as important is how fast it stands up. Communications gear for an austere environment has to arrive as a self-contained, rapidly deployable system — powered, weatherized, and ready to come online in minutes, not days. When an incident expands overnight, the network has to expand with it.
Built for Where Others Won’t Go
Richesin Engineering operates on a simple principle: we work remotely everywhere, and we work on-site where others won’t go. Most of our managed IT and network engineering happens over the wire, from our offices in Madras. But the fireline is the opposite kind of problem — it can’t be solved from a desk. It demands engineers who are willing to drive into the smoke, set up in a field with no power and no signal, and build a working network from nothing.
That combination — deep network engineering paired with a tolerance for difficult, remote, and unglamorous field conditions — is exactly what wildfire communications require, and it’s increasingly relevant to a region where fire seasons have grown longer and more intense.
Reliable connectivity on an incident isn’t a convenience. It’s what lets the people managing a fire see clearly, coordinate quickly, and make better decisions under pressure. Behind every well-run incident is an information backbone most people never think about — and that backbone has to work in the one place infrastructure usually doesn’t reach.
For Central Oregon’s communities, agencies, and the businesses that depend on a swift, well-coordinated response, that’s worth thinking about before the next column of smoke goes up.
Richesin Engineering LLC is a Madras-based telecommunications and managed IT company specializing in network engineering, fiber construction, cybersecurity, bonded internet and Starlink solutions, and communications for remote and rural environments.
