Rural America Doesn't Have a Fiber Problem. It Has a Reality Problem

The $42 billion broadband bet is already running into one thing no policy can fix: geography. One engineer has spent 26 years learning that lesson the hard way. \ Somewhere in rural Colorado, a family is still doing homework over a mobile hotspot. Not because nobody cares. Not because there's no money. The BEAD Program has $42.45 billion sitting in federal accounts right now — the largest broadband investment in American history. States are issuing subgrants. Contractors are filing bids. Press releases are going out. And yet the gap between "funded" and "connected" keeps stretching. Venkat Potluri knows this gap well. Not from policy briefs or industry panels — from standing in it. As VP of Fixed Wireless Access at Viaero Wireless, he's spent 26 years building networks in the places where plans meet reality and reality usually wins. His career has taken him from Racetracks and Business aircraft to mountaintops in Colorado — always asking the same question the broadband debate tends to skip: when the fiber bid is too expensive, the terrain too hostile, and the timeline too long, what do you actually do? "I've never worked in an environment that waited for the perfect solution," he says. "You build what works now, and you make it better as you go. That's not a compromise — that's engineering." \ The Math No One Wants to Do The case for fiber is real. It's fast, reliable, and doesn't degrade in a thunderstorm. But the economics of fiber in rural America is a different conversation — one that tends to get glossed over in Washington. Running fiber in dense suburbs costs around $1,000 per location. In rural terrain, that number can climb past $10,000 — before accounting for labor shortages, permitting delays, and the simple physics of distance. Stretch those numbers across the geography of rural Colorado, Wyoming, or Montana, and the math stops working fast. The NTIA saw this coming. In 2025, the agency quietly shifted away from fiber's previously favored status under BEAD, adopting a technology-neutral framework that allows fixed wireless and satellite providers to compete for federal dollars on equal footing. It wasn't an ideological move. It was arithmetic. "Nobody pulled fiber out of the running," Potluri explains. "They just stopped pretending it's the only answer everywhere. There are places where fiber makes total sense. And there are places where you'd finish building it in 2030, and half the residents would have moved or found something else." The market is reaching a consistent conclusion: all major carriers have doubled the number of their Fixed Wireless Access (FWA) locations. This growth has not come from traditional cable trenching but rather from fixed wireless technology. The global FWA market for 5G is expanding at an annual rate of 28% and is projected to reach $46 billion by 2030. These aren't startups making bets. These are the largest carriers in the country, redirecting capital toward wireless because they've done the math too. \ What Extreme Environments Teach You About Rural Broadband Potluri's perspective on rural connectivity is shaped by a career spent in places with zero tolerance for failure. Extreme weather conditions and terrain obstacles make deployment difficult. Additionally, last-mile cell sites lack fiber haul, making them even more vulnerable to extreme weather, which ultimately affects the quality of service for end customers. To address these challenges in rural areas, we need reliable and robust hardware that can withstand such conditions. "When you build for a racecar doing over 200 miles per hour, you stop thinking about 'good enough,'" he says. "You think about what happens when everything goes wrong at once — and you design for that." That mindset transfers directly to rural broadband. The failure modes are different — terrain instead of speed, dispersed homes instead of a racetrack — but the core engineering challenge is the same: deliver reliable connectivity in an environment that doesn't cooperate. He's also overseeing Viaero's participation in the FCC's Rip and Replace program, the federal initiative requiring carriers to remove equipment from vendors flagged as national security risks. It's unglamorous, operationally complex work of replacing equipment at sites, migrating customer premises equipment, coordinating with regulatory and legal teams — and it's exactly the kind of work that keeps a rural network running while everyone else is debating what to build next. "Rip and Replace taught me a lot about how fragile assumptions are," he says. "You think you know what's in the network. Then you go look, and you realize the network has been making its own decisions for years." \ O-RAN: The Shift Nobody's Covering The most consequential development in rural broadband right now isn't a funding program. It's happening at the architecture level — and it barely makes the mainstream broadband press. Open RAN is a fundamental rethink of how wireless networks are built. Traditional radio access networks were closed, proprietary stacks: buy from Vendor A, stay with Vendor A, pay Vendor A's upgrade prices indefinitely. O-RAN disaggregates that stack, letting operators mix components from different vendors, validate against open specifications, and run network functions on standard commercial hardware. For a small regional carrier in rural America, this is not a subtle difference. It's the difference between needing a billion-dollar vendor relationship to build a competitive 5G network — and not. Potluri is currently designing and deploying an O-RAN framework at Viaero to validate next-generation 5G SA components in a live rural network environment. Not in a lab. Not in a proof of concept. In production, serving real customers. "The big carriers can absorb vendor lock-in. It's annoying for them. For a regional operator, it's existential," he says. "O-RAN changes who gets to build. And that matters more for rural connectivity than any single funding program." His background feeds directly into this work. At Cisco, he ported Virtual HetNet services and QoS onto SDN/NFV infrastructure — early work in software-defined networking that is now foundational to how O-RAN deployments are designed. He's operated across the full vendor stack: Cisco small cells, Ericsson and Samsung base stations, VMware-based virtual EPC cores, multiple CPE platforms. He knows where the seams are. \ 2026: The Gap Gets Harder to Ignore The broadband industry has been calling 2026 an inflection point for several years. What's different now is that the predictions are colliding with construction timelines. The first BEAD-funded fiber projects broke ground in 2025. Realistic completion windows for most of them run to 2028 or 2030. That's a three-to-five-year gap — during which the money exists, the intent exists, the press releases exist, but the connection doesn't. Fixed wireless doesn't wait for trenching permits. A properly sited tower with the right equipment can serve customers within weeks of approval. The CPE market — the plug-and-play hardware on the customer side — is projected to reach $7 billion by 2030, driven largely by devices that non-technical users can self-install. "The conversation has been 'fiber or Wireless’ for so long that people forgot to ask 'when,'" Potluri says. "FWA can be in the ground — or rather, in the air — before the fiber environmental review is done. That's not a criticism of fiber. That's just how long things take." His argument isn't that fixed wireless should replace fiber. It's that the sequencing in most state broadband plans is backward. FWA can serve communities now while fiber builds toward them. Treating it as a fallback rather than a complement means families wait years longer than they need to. \ Data demands and User experience The average broadband household is approaching a consumption level of nearly 1TB of internet data per month. This demand will continue to increase as more applications require additional data and customers connect an increasing number of devices to the internet. According to Potluri, providing internet service is not just about delivering data; it's also about the quality of that connection. For instance, online gamers need both high bandwidth and low latency to meet their requirements. To achieve this, we must utilize next-generation technologies that operate across both licensed and unlicensed bands, ensuring best-in-class services and enhancing user satisfaction. \ The Honest Version The broadband debate tends to produce two types of advocates: fiber purists who treat wireless as a second-class technology, and FWA promoters who oversell coverage maps and understate the real limitations of wireless in extremely low-density terrain. Potluri sits in neither camp — a position earned, not chosen. He's seen FWA deployments succeed and he's seen them fail. He's worked with fiber operators, CBRS providers, satellite-adjacent systems, and every generation of wireless standard from 2G through 5G. He's dealt with the FCC, negotiated vendor contracts, and built networks that had to actually work — not just perform well in a funding proposal. "I'm not trying to sell wireless," he says. "I'm trying to connect people. Those are different problems, and they require different answers depending on where you're standing." :::tip This article is published under HackerNoon's Business Blogging program. ::: \