The Infrastructure Investment and Jobs Act (IIJA), signed into law in November 2021, launched an aggressive federal effort to overhaul America’s digital infrastructure. A cornerstone of this legislation is the Broadband Equity, Access, and Deployment (BEAD) program, developed under the direction of the National Telecommunications and Information Administration (NTIA).

BEAD aims to eliminate gaps in broadband access by funding solutions in areas where private investment has failed—specifically the unserved and underserved locations across the United States. Whether it’s remote farming communities, mountain towns, or tribal lands, the focus remains clear: fund high-speed internet for Americans who currently lack it.

To make this possible, the IIJA earmarked $42.5 billion for state-led broadband infrastructure initiatives. The funds empower states to build or subsidize networks where none exist or where speeds fall below the FCC’s minimum broadband standard of 25 Mbps download and 3 Mbps upload. As these state allocations move into execution, recent data show that more than 20 percent of BEAD locations are being assigned to satellite broadband solutions—a development reshaping industry expectations and deployment strategies.

Who’s Still Disconnected: Mapping America’s Broadband Gaps

Unserved vs. Underserved: A Geographic Breakdown

Across the United States, the digital divide cuts deeper along certain geographic lines. According to the Federal Communications Commission (FCC), unserved locations lack access to broadband offering at least 25 Mbps download and 3 Mbps upload speeds. Underserved locations fall between these minimums and the higher target of 100/20 Mbps.

• Rural areas account for the majority of unserved locations, with the FCC reporting over 14 million rural Americans lacked adequate broadband access as of late 2023.
• Tribal lands face even starker gaps—just 79% of residents have access to fixed terrestrial broadband, compared to the national average of 98%, based on data from the U.S. Census Bureau and FCC maps.
• Urban areas see fewer unserved households overall, but underserved zones still exist, especially in low-income districts where infrastructure investments have lagged.

Rural, Urban, and Tribal Divides

Even in metro regions, broadband access doesn't follow a neat pattern. Pockets of digital inequality exist within high-density cities where infrastructure may be present but unaffordable or overwhelmed. In contrast, many rural counties face physical infrastructure problems—long distances, sparse populations, and natural barriers increase buildout costs and timelines.

On tribal lands, connectivity issues stem not only from infrastructure deficits but also from policy exclusion. The National Congress of American Indians points to jurisdictional complexity and underfunded tribal telecom initiatives as major barriers to equitable access.

Changing Maps: FCC's New Tools for Defining Coverage

The FCC launched a more granular Broadband Data Collection (BDC) map in late 2022 to replace legacy models that overstated coverage. Unlike outdated census-block methods, the BDC map allows consumers and officials to view availability down to individual address points. This level of detail directly affects who gets funding under BEAD by identifying precise unserved and underserved locations.

The first challenge window for the new maps closed in March 2023, triggering a flood of corrections. This reshaped the funding landscape, validating large numbers of previously overlooked households and enabling states to refine their broadband allocation strategies more effectively.

Local Offices Stepping Up

State broadband offices and municipal governments have begun using FCC and private data to submit mapping challenges. Local input helps flag inaccuracies in provider-reported service areas, and these efforts have led to location status corrections in states like Maine, California, and West Virginia.

These broadband offices play a central role not only in mapping, but also in community engagement and last-mile planning. Their direct interaction with local residents, especially in rural and tribal zones, brings ground-truth information into the federal funding process.

Why Satellite Internet Is Poised for Expansion

Comparing Fiber, Fixed Wireless, and Satellite Technologies

Three primary technologies compete to deliver broadband access in rural and underserved areas: fiber-optic, fixed wireless, and satellite. Each offers distinct characteristics.

• Fiber-optic: This technology provides the highest speeds and lowest latency, but only when physical infrastructure is in place. Building that infrastructure requires extensive trenching, permitting, and time.
• Fixed wireless: Wireless towers send signals to households within line of sight. It generally performs well but struggles with topography and dense vegetation, reducing effectiveness in mountainous or forested regions.
• Satellite: Signals originate directly from satellites in orbit, requiring no local towers or cables. Users need only a clear view of the sky and appropriate ground equipment.

Performance Where Ground-Based Options Fall Short

Satellite internet thrives in the very regions that challenge wired deployments. Hills, rivers, deserts, and low-density communities complicate fiber and fixed wireless builds—both rely on predictable terrain and existing road networks to reduce cost and planning overhead. In contrast, satellite networks sidestep these limitations entirely by transmitting from orbit.

No Trenching, No Towers: Infrastructure-Free Access

Installing terrestrial networks in rural regions often means digging through rock, crossing protected lands, or waiting on permitting authorities. Satellite connections eliminate trenching and tower construction. The physical footprint is minimal—a dish, a modem, and power.

This absence of ground infrastructure cuts delays and turns many once-unreachable zones into addressable markets. The potential is especially high in reservation lands, alpine areas, and fragmented communities where linear builds are infeasible.

Fast Deployment Timelines

While fiber rollouts can span years from planning to activation, satellite service can reach an area in days. After a satellite network covers a region, ground equipment installation becomes the only variable. In many cases, a trained technician can handle the task in a single visit, or residents can self-install using guided kits.

This accelerated deployment gives states and ISPs an effective tool to meet BEAD milestones, especially in Phase I environments where swift progress holds financial and political weight.

Low-Earth Orbit (LEO) Networks: Changing Expectations

Legacy satellite providers served connections from geostationary orbit—about 22,000 miles above Earth. These produced latencies of 600 milliseconds or more, with limited throughput. By contrast, today’s LEO satellite constellations operate 300 to 1,200 miles above ground. Resulting latency sits in the 20–50 millisecond range, rivaling DSL and often outperforming older cable networks in remote regions.

Starlink by SpaceX, Project Kuiper by Amazon, and OneWeb are pushing LEO coverage globally. As of early 2024, Starlink operates over 5,000 satellites and plans to expand its fleet beyond 12,000. This expanding presence enables nationwide coverage, supports load balancing through cross-satellite communication, and raises consumer expectations around quality and reliability.

LEO networks now support HD video, real-time conferencing, remote learning, and cloud-based work—all without ground-based bottlenecks. Their performance profile has moved satellite internet from fallback to contender within the national broadband strategy.

The Rise of LEO Satellites in BEAD Projects

What Are LEO Satellites and Why They Matter

Low Earth Orbit (LEO) satellites operate between 500 and 2,000 kilometers above the Earth’s surface—close enough to deliver significantly lower latency than traditional geostationary satellites. This proximity cuts signal travel time drastically; the round-trip latency of a LEO connection can fall well under 50 milliseconds compared to 600 milliseconds or more for GEO systems. That difference transforms the user experience from sluggish to responsive.

LEO constellations rely on hundreds or thousands of small satellites working in concert. Each one covers a limited area, but together they form a seamless global network. This design enables continuous coverage and minimizes service disruptions caused by obstructions like buildings, trees, or mountains.

Technological Evolution in Satellite Internet

Earlier generations of satellite internet struggled with speed, reliability, and capacity. New players—most prominently Starlink from SpaceX—have altered that narrative. Starlink’s phased-array antennas, coupled with a growing constellation of over 5,000 active satellites as of early 2024, now deliver download speeds exceeding 100 Mbps for many users, with growing documentation of 200 Mbps+ in several regions.

Latency continues to fall as inter-satellite laser links become standard. These links allow data to hop between satellites in space without touching ground stations, reducing latency bottlenecks and extending reach to remote areas not served by fibre or fixed wireless.

Tackling Rugged Terrain and Sparse Populations

Many of the most difficult-to-reach BEAD-eligible areas lie in mountainous terrain, desert plateaus, or islands. In places like rural Alaska, the Colorado Rockies, and the Navajo Nation, trenching fiber is impractical or cost-prohibitive. LEO satellites require no digging, no towers, no infrastructure besides a rooftop dish and a clear sky.

In states such as Montana and West Virginia, LEO services are already bypassing terrain constraints. The ability to beam gigabit-speed signals to an isolated outpost has shifted the viability equation for broadband deployment strategies.

Growing Presence in BEAD Scoring and Broadband Maps

State broadband offices use detailed scoring systems to award BEAD grants. Increasingly, satellite service is factoring into these equations—not just as competition, but as planned infrastructure. Alabama and Texas, for example, include LEO technical capacity and deployment speed in their scoring rubrics.

Additionally, the FCC’s Fabric location data now accommodates satellite coverage metrics, which allows for more precise mapping of how LEO constellations can serve unserved and underserved addresses. This integration boosts the eligibility profile of satellite providers.

Rather than a last resort, LEO satellites are becoming one of the first tools states consider in filling high-cost coverage gaps.

Fixed Wireless vs Satellite: How States Are Making Deployment Decisions

Evaluating Fixed Wireless and Satellite for Unserved and Underserved Locations

State broadband offices face high-stakes decisions in allocating Broadband Equity, Access, and Deployment (BEAD) funds. For locations considered too remote, rugged, or expensive to wire using fiber, fixed wireless and satellite internet become the primary contenders. Each offers distinct trade-offs, and the choice depends heavily on geography, density, and funding limitations.

Cost: Budget Pressures Tilt the Scale

In rural terrains with sparse populations, the economics of deploying broadband often favor satellite. While fixed wireless requires a web of ground infrastructure—towers, backhaul, and line-of-sight endpoints—satellite services, especially those using Low Earth Orbit (LEO) constellations, bypass those hurdles. For instance:

• Fixed wireless deployment costs range between $1,000 to $5,000 per household, depending on terrain and tower availability.
• LEO satellite setup costs typically involve only the user terminal and subscription, averaging $599 for hardware and $90 monthly in service fees (as of 2024 Starlink pricing).

States with limited BEAD allocations turn to satellite in regions where last-mile terrestrial costs threaten to exceed budget thresholds by several magnitudes.

Reliability and Latency: Factors That Influence Long-Term Viability

Traditional geostationary satellite systems suffer from high latency—about 600 ms or more round trip. In contrast, LEO constellations orbit closer to Earth, reducing latency to between 20 and 50 milliseconds. That performance now competes directly with fixed wireless solutions relying on line-of-sight transmission.

However, fixed wireless can be more vulnerable to weather interference or physical obstructions, particularly in forested or hilly areas. Satellite signals, though affected by extreme weather, do not rely on tower proximity, making them more reliable in fractured terrain.

Speed and Service Availability

Fixed wireless providers often advertise speeds ranging from 50 Mbps to 200 Mbps, but these vary significantly depending on congestion and spectrum availability. LEO satellites consistently deliver 100+ Mbps download speeds to individual terminals, with upload speeds around 20 Mbps.

Availability is also evolving rapidly. While fixed wireless coverage remains reliant on dense infrastructure in accessible zones, LEO satellites cover entire states—including tribal lands and mountainous regions—bypassing the constraints of existing tower networks.

Where Satellite Offers the Superior Option

Satellite earns priority in specific use cases:

• Remote homesteads or ranches beyond the reach of wireless towers.
• Tribal lands where spectrum rights and tower access create legal and logistical hurdles.
• Disaster-prone areas where terrestrial infrastructure may be unreliable or vulnerable.
• Heavily forested or mountainous zones where line-of-sight connections are inconsistent or cost-prohibitive to establish.

Visual Mapping: Terrain Dictates Technology

Geospatial analysis plays a pivotal role in deployment strategy. States use GIS mapping to overlay terrain data, population density, and proximity to existing infrastructure. These maps inform where fixed wireless can serve with minimal investment, and where satellite becomes the logical option.

Consider the Appalachian region, where ridge-and-valley geography introduces signal shadows that undermine fixed solutions. Or large tracts of Arizona’s Navajo Nation territory, often disconnected due to the absence of viable tower sites—here, Starlink signals down directly, no intermediary infrastructure needed.

Decision-makers pair these maps with cost calculators and speed/ping modeling to create hybrid coverage strategies tailored to the landscape.

The 20 Percent Shift: Numbers Behind the Satellite Movement

State broadband offices are steering a significant slice of BEAD (Broadband Equity, Access, and Deployment) allocations toward satellite technology. According to filed Initial Proposals collected by the National Telecommunications and Information Administration (NTIA) through early 2024, more than 20 percent of all unserved BEAD locations will be served via satellite internet. The swing isn't speculative—it's anchored in submitted data and draft plans from at least 12 states, with trends emerging in both rural Western territories and densely forested Appalachia.

Breaking Down the Numbers

Data from states like Alaska, Wyoming, Utah, and Vermont reflect sharp movement toward non-terrestrial service models. In Alaska’s draft Initial Proposal, over 35% of unserved locations are earmarked for satellite connectivity. Wyoming proposed a model where approximately 28% of unserved locations fall into what it classifies as ‘Extremely High Cost’ areas—a designation that allows states to bypass fiber or fixed wireless in favor of satellite installation. Indiana, despite its relatively flatter terrain, flagged just under 20% for potential satellite funding.

In total, across 26 Initial Proposals analyzed between November 2023 and March 2024, more than 768,000 unserved locations were classified as candidates for satellite broadband. That figure represents a structural shift in how states balance performance benchmarks with deployment feasibility.

Why the Satellite Allocation Makes Fiscal Sense

Satellite deployment doesn't encounter right-of-way negotiations, trenching delays, or pole attachment disputes. This simplicity slices down cost per home passed, especially in locations where fiber costs surge past $30,000 per mile. With states working within fixed BEAD allocations—for instance, Texas received $3.3 billion while Alaska received just over $1 billion—maximizing coverage within budget becomes a mathematical exercise.

• Stretching Funding: In terrain-challenged areas, satellite service can be installed at less than 10% of the per-location cost of fiber.
• Speed to Deploy: While fixed terrestrial builds may require 18 to 36 months, satellite service can activate households in weeks.
• Scalability: LEO satellite constellations like Starlink and OneWeb allow states to reach hundreds of thousands of locations quickly by leveraging existing infrastructure.

State-Level Justifications in Action

State broadband offices are not quietly embedding these decisions. They’re explicitly citing satellite in Volume II of their Initial Proposals—specifically in sections on “extremely high-cost threshold” criteria, universal coverage mandates, and hardship deployment zones. For instance:

• Utah’s UETN: Described mountain passes and plateaus with no point-of-access roads, deeming satellite the only viable option for 52,000 locations.
• West Virginia: Flagged areas with less than 4 locations per route mile as cost-prohibitive for fixed deployments, shifting those to satellite eligibility.
• Maine: Allocated a portion of its coverage model to satellite based on projected $60,000 per-mile cost for backhaul in its northern rural sites.

The common rationale centers on universal service obligation. States must connect every eligible location, regardless of remoteness, and satellite inserts a reliable, standards-compliant tool into that effort.

Why Terrestrial Broadband Faces Major Headwinds in BEAD Expansion

High Costs Undermine Fiber Viability in Sparse Areas

Deploying fiber broadband in low-density or rural locations requires disproportionate investment per household. According to estimates from the Fiber Broadband Association, extending fiber to remote U.S. areas can exceed $30,000 per mile—with costs per home served climbing well beyond $5,000 in the most challenging geographies. When population density drops below 10 homes per mile, traditional fiber models collapse under financial strain.

Long trenching distances, challenging terrain, and lack of existing utility infrastructure further inflate both material and labor costs. In many BEAD-eligible communities, the return on investment simply doesn't materialize for terrestrial providers.

Red Tape Slows Down Right-of-Way Approvals

Regulatory bottlenecks create significant delays for terrestrial broadband. Right-of-way acquisition—a process needed to install cables along roadsides or across private land—often takes years from application to approval. Agencies across jurisdictions rarely operate with coordinated timelines or shared databases.

A 2020 GAO report highlighted over 30 federal regulatory frameworks that broadband providers must navigate, particularly when installing infrastructure on public lands managed by agencies like the Bureau of Land Management or the U.S. Forest Service. The fragmented system breeds unpredictability and slows deployments well beyond projected delivery dates.

Labor Supply Can't Keep Pace with Infrastructure Ambitions

The broadband workforce shortage continues to define the pace of fiber and cable expansion. Building America’s high-speed future demands a surge in skilled labor—splicers, trenchers, and network engineers. However, the rollout of BEAD-funded projects coincides with a tight labor market.

In November 2023, the NTCA – The Rural Broadband Association cited that 78% of its members reported "considerable difficulty" hiring and retaining qualified workers. As experienced technicians retire or pivot to higher-paying sectors, ISPs face project backlogs and underutilized equipment. Training new personnel introduces additional delays, pushing short-term deadlines farther out.

Environmental Constraints Stall Ground-Based Installations

Ecologically sensitive zones add another layer of complexity to terrestrial broadband builds. In protected areas—such as wetlands, tribal lands, or migratory corridors—physical infrastructure requires environmental assessments, public consulting, and mitigation planning.

For instance, laying underground fiber through National Forest lands requires compliance with the National Environmental Policy Act (NEPA)

Internet Providers and Satellite Firms: Coordinated Networks for BEAD Coverage

Pairing Expertise: How ISPs and Satellite Companies Divide the Work

Across the United States, Internet Service Providers (ISPs) are entering strategic partnerships with satellite operators to address the final gaps in BEAD-funded broadband projects. These alliances combine the operational strength of ground-based providers with the reach of satellite systems, enabling project applications that meet performance benchmarks in regions where trenching fiber isn’t economically viable. This collaboration creates what many in the field refer to as a “hybrid model” — a system that merges terrestrial networks for population centers with satellite coverage in remote areas.

Traditional ISPs manage setup, consumer hardware, billing systems, and local customer service, while the satellite partners handle the complicated work of downlink infrastructure, satellite maintenance, and compliance with throughput and latency standards set under BEAD grant requirements. The symbiosis allows grant applicants to expand their coverage models on state plans without relying solely on state-owned or private middle-mile infrastructure.

Notable Collaborations Driving BEAD Applications

• SpaceX’s Starlink and Rural ISPs: In states like Alaska, North Dakota, and Nevada, small ISPs are leveraging Starlink’s LEO constellation to reach unserved premises that terrestrial solutions would take years to connect. With latency under 50 milliseconds and speeds exceeding 100 Mbps, Starlink systems qualify under the Infrastructure Investment and Jobs Act (IIJA) guidelines for broadband.
• Amazon Project Kuiper Partnerships: Still in its deployment phase, Project Kuiper has already entered into agreements with several state technology boards, including a planned pilot in Appalachia. These initiatives focus on community institutions – libraries, rural schools, and municipal facilities – in areas where broadband availability maps mark stubborn “white spots.”
• Regional Fiber Providers and Satellite Handoff Zones: Some regional ISPs, like Midco and Ziply Fiber, have incorporated satellite ‘handoff zones’ into their network topologies—routing last-mile connectivity through satellite for off-grid users, while maintaining backhaul via fiber in more populated areas.

Designing the Mesh: The Hybrid Network Vision Takes Shape

Hybrid broadband models under BEAD create nuanced service maps that draw boundaries around financially feasible fiber territories, then assign satellite connectivity to the perimeters. At a planning level, this model provides states with flexibility. Mississippi and Montana, for instance, use a three-tier system: Tier 1 for fiber priority zones, Tier 2 for fixed wireless deployments, and Tier 3 for satellite-eligible census blocks. This segmentation ensures maximum coverage under limited funding constraints.

Synchronization between ISPs and satellite firms extends to hardware standardization as well. Consumer terminals provided for satellite service are increasingly being bundled into ISP deployment kits to enable a plug-and-play transition across service boundaries. For residents, the line between satellite and fiber becomes invisible.

The significance of these partnerships reflects directly in the data — with more than 20 percent of BEAD-served locations projected to rely on satellite, ISP-satellite coordination has moved from experimental to essential infrastructure methodology.

NTIA’s Role in Shaping How States Embrace Satellite Broadband

Technology Neutrality as a Core Principle

The National Telecommunications and Information Administration (NTIA) has directed each state’s BEAD plan to embrace technology neutrality. The goal: evaluate every broadband technology—fiber, fixed wireless, satellite—by its ability to deliver on the program’s performance metrics, not by who provides it or how. Rather than prescribing preferred solutions, the NTIA has instructed states to consider all available options on equal footing, especially in hard-to-reach areas.

This policy stance opens the door wide for satellite services, particularly those from low Earth orbit (LEO) providers. If a solution can demonstrate it meets the NTIA’s standards—100 Mbps download and 20 Mbps upload minimums, low latency, affordability, and scalability—it qualifies to compete for BEAD funding. States are not allowed to sideline satellite technologies purely on theoretical performance limitations or legacy policy preferences.

Where Satellite Gets Prioritized

While fiber remains the gold standard in most deployment scenarios, the NTIA recognizes that full terrestrial buildout might be unrealistic in some parts of the country. Satellite becomes a prioritizable solution when:

• The cost per passing for fiber far exceeds reasonable thresholds, particularly in rugged terrain or low-density regions.
• No other terrestrial provider has committed to covering the area within the project’s timeline.
• The service levels of LEO satellite providers have been independently validated through RDOF or other performance-based programs.

In these contexts, satellite doesn’t just appear as a fallback. It becomes a primary, performance-qualified candidate within the NTIA’s framework. States are free—even encouraged—to recognize its operational advantages over higher-cost terrestrial alternatives in these edge scenarios.

Where Satellite May Be Deprioritized

However, the NTIA has explicitly defined performance expectations. Any technology, including satellite, that fails to consistently deliver service at the program’s minimum speeds or suffers from high latency will struggle to qualify. Situations leading to satellite being deprioritized include:

• High user contention ratios causing variability in performance during peak times.
• Unmet latency benchmarks that affect real-time applications such as video conferencing or online gaming.
• Lack of demonstrated compliance with cybersecurity and network resiliency standards.

States submitting initial proposals are expected to apply rigorous, outcomes-based criteria when weighing satellite deployments. Data, not assumptions, will drive eligibility determinations.

The NTIA’s guidance does not dictate who wins—it defines how to score. This shift to evidence-based selection is one of the reasons more than 20 percent of BEAD locations will go to satellite. When conditions align, satellite providers score high, especially in regions where fiber buildouts won't pencil out within the program’s budget or timeline constraints.

Digital Equity, Community Feedback, and the Future of Broadband Access

Local Voices Are Reshaping Access Strategies

Across the country, town halls, listening sessions, and digital equity offices are collecting feedback from communities long excluded from reliable broadband infrastructure. In areas designated for BEAD funding, grassroots input plays a central role in shaping final deployment decisions. Residents are raising concerns not only about coverage but also about long-term affordability models, latency issues, and customer service quality.

Community engagement data collected through federal and state broadband outreach programs shows consistent preferences: people want transparency in how technologies are selected, and they want to know whether their service will support real-time applications like video conferencing and telehealth. These insights are reshaping how state broadband offices allocate subgrants and evaluate the inclusion of satellite providers.

Balancing Trade-Offs in Satellite Broadband Deployment

Feedback loops have revealed a pattern. When faced with the choice between slow rollout of fiber and faster deployment via satellite, many rural communities say they’ll take the satellite—under one condition: the service must uphold performance standards.

The affordability of satellite plans remains a concern. While low Earth orbit (LEO) satellite services have narrowed the performance gap with terrestrial broadband, monthly subscription costs can be higher than FCC benchmarks for affordability. In response, some state broadband offices are negotiating performance commitments and pricing guarantees directly with providers as part of their subgrant conditions.

Speed, latency, and data caps emerge as recurring themes. For distance learning, telehealth, and remote work to function well, users need low jitter and high reliability. Satellite networks, especially LEO constellations, deliver acceptable latency—typically 30 to 50 milliseconds—but questions remain about congestion during peak hours in heavily subscribed areas. Community stakeholders are pressing for service-level agreements that address these variables before final deployment decisions lock in.

Digital Equity Demands Service That Supports Real Life

In tribal lands, Appalachian hollers, farm towns, and remote Alaskan villages, broadband isn’t a luxury. It anchors modern economic and civic participation. Satellite Internet, when implemented with clear equity-focused benchmarks, can close long-standing digital gaps in:

• Education: School districts report that more than 15 million students still lack adequate home connectivity. Satellite access will directly enhance virtual learning platforms, homework submission, and video-based classroom interaction.
• Telehealth: State health departments cite connectivity as a staggeringly common barrier to rural telemedicine. Clinics equipped with satellite links will gain dependable appointment systems and remote diagnostics.
• Workforce Access: Remote job training programs and digital upskilling pathways fail without reliable Internet. Satellite’s reach will extend these programs to populations sidelined by geography.

Satellite’s Role Isn’t Transitional—It’s Strategic

More than 20 percent of BEAD-funded locations will rely on satellite for initial or long-term service delivery. This is not a stopgap—states and stakeholders are treating satellite as a strategic component of their digital equity architecture.

Satellite broadband won't replace fiber in dense corridors, nor will it substitute fixed wireless where terrain allows reliable terrestrial signals. But in locations where cost, geography, or population density complicate terrestrial infrastructure, satellite emerges as the only viable solution to meet BEAD’s universal access mandate.

Community influence will continue to define how satellite gets deployed. As digital equity offices evaluate grant proposals, public testimony and field data carry increasing weight. The 20 percent projected satellite footprint is a ceiling that may rise—or be recalibrated—based on how well services meet community expectations over time.

Aligning Broadband Deployment with Community-Centered Equity

Satellite’s Role in Bridging the Last Mile

When state broadband offices allocate more than 20 percent of BEAD locations to satellite solutions, they aren't just embracing technological expediency—they're responding to community geography, infrastructure limitations, and cost realities. These decision-makers aren't comparing ideal scenarios but instead choosing the only reliable path forward in terrains where trenches can’t be dug or poles can’t be installed. From the northern reaches of Alaska to the agricultural basins of the Midwest, satellite internet offers what fiber and fixed wireless cannot: scalability without proximity.

That said, the choice to lean heavily on satellite isn't just a matter of necessity. It's a bet on technical maturity. With Low Earth Orbit (LEO) constellations continuing rapid deployment and promising sub-100ms latency in real-world conditions, the performance gap between satellite and traditional broadband tech is narrowing. In network tests published by Ookla in Q4 2023, median download speeds on Starlink reached 76.5 Mbps, with upload speeds averaging over 10 Mbps—well within NTIA’s baseline for qualifying broadband service.

Technology Alone Doesn’t Equal Equity

Deploying internet service in underserved areas is only part of the solution. Connectivity shines only when communities can meaningfully adopt and integrate it into their daily lives—through local support, affordability programs, and digital education. States choosing satellite for over a fifth of their BEAD-funded locations are now tasked with pairing that technology with community-tailored strategies. This includes ensuring service affordability under the BEAD-affiliated Low-Cost Option and integrating digital literacy outreach in partnership with local anchor institutions.

• Bandwidth delivery without cost transparency stifles adoption.
• Performance metrics alone do not reflect human impact.
• Ongoing technical support needs to match the complexity of the technology deployed.

Community-Centered Planning at Scale

Sifting through thousands of public comments, many states are refining their Initial Proposals not only based on mapping corrections, but with a growing sensitivity to how residents describe their digital needs. A rancher in Wyoming doesn’t use broadband like a high school student in Mississippi. Nonetheless, both require dependable service to participate fully in today’s economy. The satellite pivot in rural locations isn't about blanket solutions—it's about rooted action that reflects what residents need, where they are.

As BEAD moves into execution, the states assigning satellite to over 20% of their awarded locations have done more than pick a technology. They've signaled a shift: one where technological deployment is no longer measured only in gigabits or latency, but also in equity, opportunity, and long-term inclusion.