OSP engineering, FTTH design, pole loading analysis, and ROW permitting across all 100 NC counties — from the Outer Banks to the Blue Ridge, built for BEAD, GREAT, and CAB deployments.
North Carolina is one of the most geographically complex broadband deployment environments in the country. A single project in the eastern coastal plain operates in a completely different engineering context than a build running through the Piedmont red clay or up into the steep terrain of the western Blue Ridge. Draftech has fielded work across all three zones. We understand the difference between boring soft tidal flats near Wilmington, dealing with high rock content on HDD crossings near Asheville, and navigating the Duke Energy Carolinas joint-use backlog in the Triad. That ground-level familiarity is what we bring to NC deployments.
North Carolina received a $1.53 billion BEAD allocation through NCDIT's Division of Broadband and Digital Opportunity — one of the larger state allocations nationally. In December 2025, Governor Josh Stein unlocked more than $300 million for broadband expansion projects statewide. The first wave of subgrant awards has already landed: $408.5 million in subgrant commitments targeting 93,138 locations across homes, businesses, and CAIs, with a deployment window running from 2026 through completion in 2030. Kinetic (Windstream) received $147.3 million for 49,346 locations in the state as part of that first award round.
North Carolina also has two state-administered programs that predate and run alongside BEAD: the GREAT program (Growing Rural Economies with Access to Technology) and the CAB program (Completing Access to Broadband). Unlike federal BEAD, both GREAT and CAB require 100% FTTP deployment — no fixed wireless alternatives — which means the engineering and permitting scope is fully fiber-only. If you're a subgrantee under any of these programs, the design deliverable expectations and NCDIT documentation standards are non-negotiable, and getting the engineering partner right early is the shortest path to staying on schedule.
NCDIT documentation note: North Carolina's broadband office has specific design deliverable requirements for BEAD-funded builds that differ from the NTIA baseline. We're familiar with those standards and build our HLD/LLD packages to satisfy them without additional revision cycles.
North Carolina's terrain divides into three broad engineering environments, each requiring a different field approach.
Eastern Coastal Plain and Outer Banks: The flatlands east of I-95 — through counties like Washington, Tyrrell, and Dare — involve soft soils and occasional wetland crossings. HDD here is generally straightforward from a rock perspective, but wetland permitting near the coast (particularly around the Outer Banks and coastal estuaries) can add USACE 404/401 review to the schedule. The coastal zone also drives an underground preference: above-ground plant in high-wind corridors along the OBX and Wilmington metro is more exposed to hurricane damage than buried cable, and engineers working in those areas should be accounting for that in the aerial vs. underground decision early in HLD. We've worked through these trade-offs on coastal NC projects and can quantify the risk in a way that informs the construction method decision before it becomes a post-build problem.
Piedmont Triad and Central NC: The red clay soils of the Piedmont introduce different bore conditions — cohesive but variable hardness — and the region is dense with Duke Energy Carolinas and Duke Energy Progress poles. Joint-use applications through Duke's JUA process can run 90–180 days depending on the district and the backlog, which is a real schedule risk on BEAD builds with contractual completion dates. Dominion Energy NC serves portions of the northeastern Piedmont. The CSX and NS railroads cross through this region as well; railroad ROW crossings require their own permitting track and we handle those through our permitting team without them falling off the schedule board.
Western Mountains (Blue Ridge / Appalachians): The most expensive NC terrain to build in. HDD in hard rock — common in Watauga, Avery, Mitchell, and surrounding counties — can add significant cost per bore compared to coastal or Piedmont soil conditions. Steep grades complicate aerial span engineering as well: NESC clearance compliance on mountainside terrain requires careful attachment height analysis. Our pole loading analysis capability handles the complex loading scenarios that come with high-altitude, high-wind zones in these counties. Rural electric co-ops are the dominant utility owners in many of these western areas, and their joint-use processes differ from the investor-owned utilities.
North Carolina's utility landscape is a mix of investor-owned utilities and a significant rural co-op network. Duke Energy Carolinas and Duke Energy Progress together cover a large portion of the state's IOU territory. North Carolina's Electric Cooperatives — a network of rural EMCs serving primarily eastern and western NC — own substantial pole infrastructure in the areas where most BEAD build activity is concentrated. The process for getting pole attachment approval, loading analysis, and make-ready work ordered varies meaningfully between Duke (large JUA system), Dominion NC, and the individual co-ops.
We perform pole loading analysis using O-Calc Pro and SPIDA Calc, and our make-ready engineering packages are formatted to the specific utility's submission requirements. For Duke territories, that means adhering to their OSP attachment standards and going through their electronic JUA portal. For co-ops, the process is often more direct but still requires NESC-compliant loading documentation. NCDOT permits for state highway ROW and individual county permit processes — all 100 counties operate their own process — are handled by our ROW permitting team, which tracks each jurisdiction's requirements rather than applying a one-size approach.
Our FTTH design engineering work in North Carolina covers the full project lifecycle. HLD establishes the network architecture: feeder routing, splitter placement, fiber count planning, and optical budget modeling. LLD produces the construction documents — pole-by-pole span tables, conduit schedules, splice case placements, and AutoCAD plan sets formatted for permit submission. For rural BEAD builds at 3–7 addresses per route mile in eastern or western NC, the splitter architecture and drop economics look very different from a suburban build in the Raleigh-Durham metro. We design for the actual address density and terrain, not a theoretical model.
Field survey is a critical input to accurate LLD in North Carolina, particularly in areas where aerial plant records are incomplete or where existing co-op pole data doesn't reflect current attachment counts. Our field survey team collects attachment data, photographs, GPS coordinates, and span measurements that feed directly into the design, which is why our re-design rate from field discrepancies is very low. As-built documentation following construction — formatted to NCDIT requirements for BEAD subgrantee reporting — closes the project lifecycle.
Design tip for NC BEAD builds: The combination of 100% FTTP requirements (for GREAT and CAB), aggressive completion timelines, and NCDIT documentation standards means engineering capacity and schedule need to be locked in at contract execution, not at the start of HLD. Projects that begin permitting and pole applications concurrent with HLD design move faster.
High-level and low-level fiber network design, splitter architecture, optical budgets, and full construction packages for NC deployments.
StructuralO-Calc Pro and SPIDA Calc analysis for Duke Energy, Dominion, and NC electric co-ops. Make-ready engineering formatted to each utility's JUA requirements.
PermittingNCDOT state highway ROW permits, county-level permit coordination across all 100 NC counties, railroad crossings (CSX, NS), and USACE/wetland permits near coastal zones.
FieldAerial strand mapping, pole data collection, underground investigation, and terrain field verification across NC's diverse coastal, Piedmont, and mountain terrain.
EngineeringFull outside plant engineering support — CAD/GIS deliverables, route analysis, splice diagrams, and BEAD-compliant documentation packages for NCDIT reporting.
We have fielded projects across North Carolina's full geographic range — coastal plain BEAD builds in the east, Piedmont overbuild work in the Triad and Triangle, and rural mountain deployments in the western counties. Our team is familiar with NCDIT's program requirements, the Duke Energy JUA process, and the permit schedules typical for NCDOT and county ROW work. If you're scoping a BEAD subgrant build, a GREAT or CAB-funded deployment, or a market-funded overbuild anywhere in the state, we can turn around a project scope and fee estimate quickly. Contact us at info@draftech.com or call 305-306-7406 to get started.
For context on what drives timeline variance on fiber projects, our article on make-ready engineering and deployment timelines is a useful primer. For NC builds involving ROW coordination across multiple jurisdictions, we've also written on ROW permitting delays and how to manage them. And for BEAD-funded projects specifically, our piece on BEAD engineering requirements in 2026 covers what documentation and design standards most state offices are applying to subgrantee packages.
North Carolina
North Carolina has three distinct construction environments that engineering must account for. The coastal plain in eastern NC is generally favorable for bore — soft soils, flat grades — though wetland crossings near the coast add permitting complexity and schedule. The Piedmont's red clay is workable but variable; Duke Energy's joint-use backlog in that region is often the bigger schedule driver than soil conditions. Western NC mountain terrain is the most expensive: hard rock HDD crossings, steep aerial spans with complex NESC clearance math, and co-op pole infrastructure that varies significantly in condition. Projects that span multiple terrain zones need separate cost assumptions for each segment rather than a blended per-mile rate.
The main engineering distinction is technology requirement. BEAD allows a fixed wireless option as a technology of last resort under certain cost conditions. GREAT and CAB are 100% FTTP programs — every served location must be connected to fiber, no exceptions. From a design standpoint, GREAT and CAB builds therefore require full FTTH engineering packages for every addressed location, with no ability to substitute wireless for higher-cost outliers. That affects HLD assumptions for drop economics and per-location cost modeling. NCDIT also has specific design documentation requirements for all three programs, and those deliverable standards need to be understood before HLD begins, not at close-out.
Timeline depends heavily on the utility. In Duke Energy Carolinas and Duke Energy Progress territories, the JUA process runs through their centralized portal. Loading analysis, make-ready work orders, and attachment approval have historically taken 90–180 days from application to clearance, depending on make-ready complexity and the district's queue. Rural electric co-ops vary more — some process attachments faster, others run a similar or longer timeline. NCDOT ROW permits for state highway crossings typically run 30–90 days. County ROW processes are more variable; some NC counties are very efficient and others run much slower. Getting all permit tracks in motion concurrently with HLD is the best way to avoid construction delays.
Yes. The aerial-vs-underground decision in North Carolina isn't uniform across the state. In the coastal zone, underground is often preferred for hurricane resilience — aerial plant in the OBX and Wilmington corridor is exposed to high-wind events in ways that buried cable isn't. In the Piedmont, most rural BEAD builds follow existing aerial utility corridors where pole infrastructure exists, but underground bore is used for road crossings and in areas without accessible aerial plant. In the mountains, terrain sometimes dictates underground even where aerial would otherwise be preferred. We assess the trade-offs during HLD — our blog on aerial vs. underground fiber construction cost covers the key variables — and design whichever method or mixed approach the project calls for.
North Carolina
From first HLD through final as-builts — we handle the full engineering lifecycle for BEAD, GREAT, and CAB deployments across all 100 North Carolina counties. Certified MBE. Active across all 48 continental U.S. states.
Contact Our Engineering TeamOr email us directly at info@draftech.com — we reply within one business day.