Why It Breaks Down
Large construction projects — greenfield industrial facilities, data centers, highway interchanges, energy plant builds — move on day-one timelines. Connected workers, IoT sensors, site security, drone monitoring, and equipment telematics are needed before the first slab is poured. Carrier infrastructure doesn't work that way. Here's what the gap actually costs.
Carrier Buildout Takes 6–18 Months. Groundbreaking Is Day One.
Requesting a temporary cell tower or carrier coverage extension for a remote or greenfield site typically takes 6–18 months from application to live signal — if the carrier agrees to build at all. Most large construction projects in Texas growth corridors (DFW, Austin, San Antonio, Gulf Coast industrial) break ground before carrier coverage reaches the site boundary. For the first phase of the build, crews are working on consumer cellular signal that may be marginal, congested, or completely absent depending on how remote the site is.
Foremen and Superintendents Are Running the Job on Personal Phones
When there's no dedicated site network, coordination defaults to personal cell phones, group texts, and radio channels that weren't provisioned for the project. Submittals get lost. Safety reports don't reach the general contractor's server. The superintendent's daily log gets uploaded when they leave the site at night and catch a signal on the highway. These aren't minor inconveniences — on a $50M+ project, communication delays compound into schedule and cost impacts that show up in the final GMP.
IoT Sensors, Telematics, and Monitoring Systems Have No Backhaul
Modern construction programs depend on data from the first day of work: concrete curing sensors that tell you whether a pour achieved design strength before you strip forms, equipment telematics that track idle time and prevent theft, environmental sensors for dust, noise, and vibration compliance near occupied areas, and structural monitoring for shoring and excavation. All of these devices need a network path to function. Without one, you are either not deploying them — accepting the risk and rework costs — or paying for someone to manually collect data that should be automatic.
Site Security Has No Camera Infrastructure During the Build
Construction site theft is a multi-billion dollar problem nationally, and Texas ranks among the highest-loss states. Heavy equipment, copper, diesel, and high-value materials disappear overnight because there is no camera infrastructure, no perimeter monitoring, and no network for the access control system at the gate. Temporary security guards are expensive and imperfect. Camera systems that require a carrier-dependent internet connection go offline when the signal drops. Neither solution scales to a 200-acre greenfield site.
Drone Operations Need Dedicated, Stable Connectivity
Drone-based site monitoring, progress surveys, and volumetric analysis are now standard on large construction projects. But drone command-and-control systems require stable connectivity that consumer cellular doesn't reliably provide at a remote site — particularly for beyond-visual-line-of-sight operations and real-time feed transmission. A drone program that falls back to manual upload at the end of each flight day is not delivering the operational value it was purchased for.
Multi-Vendor Fragmentation Costs Time and Accountability
The typical workaround is to assemble connectivity piecemeal: a hotspot from one vendor, a camera system from another, an IoT gateway from a third, a drone data service from a fourth. When something doesn't work, every vendor points at the network the other vendor provides. There is no single throat to choke, no integrated platform, and no one who owns the connectivity outcome for the project.
What Actually Works
A dedicated private network deployed at groundbreaking — and billed monthly so it demobs when the project ends — directly addresses each of these gaps. Here's the capability stack and how it maps to what construction projects actually need.
Private 5G Over CBRS Band 48 — Live in Week One
A temporary private cellular network on CBRS Band 48 spectrum gives the site dedicated bandwidth from day one — completely independent of carrier timelines and consumer LTE congestion. CBRS spectrum is coordinated through a Spectrum Access System (SAS), so coverage is reliable and interference-managed. The sector antenna on the elevated mast covers a large site footprint from a single position; as the project expands, the unit repositions and the network is back live within one hour.
Because the private network is isolated from any public carrier, it is also isolated from the congestion, outages, and coverage gaps of those carriers. Whether the site is a greenfield pad in the Permian Basin with no signal for 30 miles, or a large industrial build in a suburban corridor where every nearby carrier tower is already loaded, the private network delivers consistent, managed performance.
Outdoor Wi-Fi 6E for Site Offices and Worker Zones
Wi-Fi 6E access points deployed from the van cover the site trailer complex, lay-down yards, and high-density worker areas where tablets and laptops need connectivity. This handles the document management, BIM access, submittal portals, and crew-facing applications that private 5G coverage addresses in the open field. Both networks are managed from the same platform — one vendor, one support contact, one bill.
Satellite Backhaul With Cellular Failover
LEO satellite backhaul provides an internet uplink path that is independent of local carrier availability. This matters for greenfield sites where there is genuinely no cellular signal, and it matters for remote Gulf Coast or Permian Basin sites where cellular is marginal and unreliable. Automatic failover between satellite and cellular means the site network stays up even if one path degrades. The project manager's cloud applications and the GC's document management platform stay reachable from the field.
IoT and Telematics Onboarding From Day One
Concrete curing sensors, equipment telematics, environmental monitors, and structural sensors connect directly to the private 5G network over a dedicated IoT VLAN — isolated from worker and management traffic. The network is pre-configured to accept device provisioning for common industrial IoT protocols, so sensors come online without a site visit from the device vendor. For construction programs that use drone-based monitoring, a dedicated VLAN for drone command-and-control and telemetry gives the program a stable, managed connectivity path.
Edge AI Perimeter Security and Access Control
PTZ cameras and license-plate-recognition cameras at site access points, combined with AI-based perimeter monitoring running on edge compute, provide 24/7 site security without cloud dependency. Intrusion detection, after-hours alerts, and vehicle access logs are retained on-site on the on-prem NVR — your footage stays on your project, not in a vendor's cloud. As the site perimeter changes with construction phases, camera positions adjust and the analytics rules are updated to match.
On-Premises Push-to-Talk for Crew Coordination
An on-prem PTT server provisioned to the project's crew structure gives the general contractor, subcontractors, and safety personnel a managed, logged dispatch system — not a collection of personal radio channels that no one controls. Talkgroups are provisioned per trade and per phase. The PTT server runs on the private 5G network and does not depend on carrier connectivity, so comms stay up even during backhaul interruptions.
The Unit on Your Site
The Clover IQ Mobile Connectivity Unit deploys at groundbreaking, operates through the construction program on a monthly subscription, and demobs when the project closes out. There is no stranded equipment in the yard after punch-list, no multi-year lease to unwind, and no carrier relationship to terminate. Here is what the deployment actually looks like.
From Mobilization to Handoff
Week one — site survey and deployment
The paid site survey happens in week one — half a day on-site, producing an RF coverage plan for the current site footprint and a phase-by-phase expansion plan as the build progresses. The unit deploys from the survey findings, pre-configured for the site's specific IoT devices, camera positions, and PTT crew structure. The private 5G network is live within one hour of the unit reaching its position.
Full site handoff — within eight hours
The private network goes live in one hour. Full site handoff — coverage map documented, perimeter cameras integrated into the on-prem NVR with analytics rules active, IoT sensors onboarded and reporting, PTT handsets programmed and tested — completes within eight hours of arrival. The general contractor's IT or operations lead walks away with a working, documented system.
Monthly operations
A Clover IQ technician visits weekly for maintenance, device reconciliation, and coverage adjustments as the site evolves. 24/7 remote monitoring covers the network, power systems, and cameras. Any issue receives a 30-minute response during active engagements. If the project requires the unit to reposition — because the build has moved to a new phase area or the site perimeter has expanded — repositioning and network restore happen within one hour.
Project closeout — demob
Mast down, equipment recovered, network decommissioned. Leased devices reconciled. Camera footage archived or handed off per the data handling agreement. A final deployment data report is delivered within two business days. The project site is clean — no orphaned hardware, no vendor equipment to track down.
Three Ways to Scope It
Three tiers scale to the project's actual requirements. Large multi-phase builds typically run Tier 03 from groundbreaking. Smaller or shorter engagements may start at Tier 01 or 02 and upgrade as the project scales.
- Tier 01 — Network: Private 5G + outdoor Wi-Fi + LEO satellite backhaul. Core coverage for foreman tablets, CMMS access, and project management platforms.
- Tier 02 — Network + Devices/Comms: Adds on-prem PTT server and leased rugged devices, plus IoT VLAN for sensor and telematics onboarding.
- Tier 03 — Full Command: Full Tier 02 plus edge AI video analytics, PTZ and LPR camera integration, on-prem NVR, drone C2 VLAN, and the three-station mobile control room.
Minimum subscription is three months. Setup fee is waived for engagements of six months or more. Twelve-month commitments carry an additional discount — and most large construction programs run longer than that.
What It's Worth
The return on a dedicated site network comes from four places: schedule risk reduction, theft prevention, IoT data quality, and avoided multi-vendor overhead. The figures below use industry-published ranges. They are illustrative — validate against your project's specific contract value, duration, and site conditions.
The Cost of No Connectivity for Six Months
On a large construction project, the first six months without reliable site connectivity produces compounding losses across every trade:
- Superintendent and foreman productivity: A site with 50 supervisory staff losing 30 minutes per person per day to communication workarounds — delayed approvals, failed document uploads, re-work from lost work orders — loses roughly 25 person-hours per day at $100/hr blended rate. Over 26 weeks: $325,000.
- IoT sensor delays: Concrete curing monitoring not deployed because there's no network. A single failed pour or premature form strip on a major structural element can cost $50K–$500K in material, labor, and schedule impact — plus potential engineering investigation.
- Drone program inefficiency: A drone crew doing manual data collection instead of real-time feed transmission loses 1–2 hours per flight day per operator. Across a full construction program, this is thousands of dollars in billable time that produces lower-value output.
- Construction theft exposure: Industry data consistently places average loss per theft incident at $50K–$250K for heavy equipment and $10K–$50K for materials and tools. Unmonitored sites have significantly higher incident rates than sites with active perimeter surveillance.
Monthly Subscription vs. Capex
Illustrative scenario — buying or leasing equivalent equipment
Building out a comparable private 5G, Wi-Fi, camera, and IoT infrastructure from owned equipment — radios, access points, cameras, edge servers, NVR, cabling, installation — runs $250K–$600K in upfront capital depending on site size. On a 24-month project, that equipment depreciates entirely and has a salvage value near zero at closeout. With a monthly subscription, you pay only for the months the project runs, take no depreciation risk, and the equipment is removed at demob. For a 12-month project, the subscription model is typically less expensive than ownership even before accounting for IT overhead, warranty management, or end-of-life disposal.
ROI From Day One
- Week one: Paid site survey and RF coverage plan delivered. Equipment pre-configured.
- Week two: Unit deployed. Private network live within one hour of positioning. Full site handoff — cameras, IoT, PTT — within eight hours.
- Week three onward: IoT sensors reporting, security cameras active, drone C2 stable, foremen coordinating on PTT. Data that was previously absent or manually collected is now automated.
Three ROI Scenarios
Prevented theft incident
A single overnight theft of heavy equipment or high-value materials at an unmonitored site: $50K–$250K in direct loss, plus insurance deductible, replacement lead time (weeks for specialized equipment), and schedule impact. An active perimeter surveillance system with real-time intrusion alerts does not eliminate theft risk but materially reduces incident rates and recovery time. On a 12-month project, one prevented major incident typically exceeds the full engagement cost.
Recovered supervisor productivity
50 supervisory staff, 20 minutes per person per day recovered over a 52-week project: 433 person-hours per week at $100/hr blended rate: $43,300 per week, or $2.25M over the project. Even if the actual productivity recovery is a fraction of that — 5 minutes per person per day — the annualized number justifies the platform on productivity alone.
Avoided IoT deployment failure
Concrete curing monitoring active from first structural pour. One prevented premature form strip on a major element — avoided re-pour, avoided engineering investigation, maintained pour schedule: $50K–$300K in avoided rework depending on element size and structural complexity. The network that made the sensor data available cost a fraction of that over the full project.
Questions from the Field
What is the minimum commitment, and what happens if the project ends early?
The minimum subscription is three months. If a project closes out ahead of schedule, we demob on your timeline — there is no penalty for early termination after the three-month minimum. If the project extends, the subscription continues month-to-month at the same rate. The engagement is sized to the project, not the other way around.
What happens when the site expands or the build moves to a new phase area?
The unit repositions with the project. When the build expands into a new area — or when the hotspot of activity shifts from one phase to another — the unit drives to the new position, raises the mast, and the network is live within one hour. Coverage plan updates are included in the monthly engagement; if the expansion is significant, we do a brief re-survey and update the RF documentation. There is no additional mobilization fee for repositioning within the same project.
Can project staff use their own carrier devices alongside the private network?
Yes. The private network operates alongside carrier connectivity — it does not block or replace it. Staff with CBRS-compatible devices can connect to the private network and benefit from dedicated bandwidth; staff with devices that don't support CBRS continue on carrier LTE as before. The private network is additive, not a replacement. For users who need reliable connectivity regardless of carrier signal — typically the supervisory staff running CMMS, BIM, and document management — leased rugged devices provisioned to the private network are available with Tier 02 and Tier 03 engagements.
Is drone connectivity available, and does it require special permitting?
Drone command-and-control and real-time telemetry connectivity are supported through a dedicated VLAN on the private 5G network — available as part of the Tier 03 engagement. Regulatory permitting for drone operations is the responsibility of the project's drone operator — CBRS spectrum does not create additional FAA or FCC requirements beyond what a normal drone program carries. We configure the network to support the drone program's connectivity requirements; the operator handles flight authorization.
How does the platform handle confidential project data on the site network?
The private 5G network uses logically isolated VLANs for different traffic types — management, operations, IoT, security cameras, and any contractor-facing access are separated. The on-prem NVR retains footage on-site under your data handling requirements, not in a cloud platform. We do not retain access to project data or footage after demob. For projects with specific data security requirements — federal contracts, sensitive industrial facilities — we scope the VLAN architecture and data retention approach during the site survey.
Straight Talk
Construction IT and project managers have a particular relationship with technology vendors: they've been sold things that didn't work on-site before. Equipment that performed in a demo and failed in the mud. Systems that required a four-hour call with vendor support to do a thing that should take ten minutes. Connectivity solutions that were fine in a suburban office park and useless at a greenfield site 40 miles from the nearest cell tower.
The Clover IQ Mobile Connectivity Unit is designed for that environment, not for the demo. It runs on its own power, carries its own backhaul, and doesn't depend on site infrastructure that may not exist yet. The network is live within one hour of positioning — and that's been timed and documented, not just claimed in a brochure.
The Monthly Model Is the Point
We deliberately built the construction engagement as a monthly subscription. Construction projects already carry enough capital risk — stranded connectivity equipment sitting in a yard after punch-list is not a problem you need. The monthly model means you pay for what the project actually uses, the equipment is ours to maintain and replace if something fails, and demob is our job, not a closeout task for your IT team.
One Vendor for the Connectivity Stack
Clover IQ is a systems integrator. The private 5G, Wi-Fi, satellite backhaul, PTT, cameras, analytics, IoT onboarding, and drone C2 connectivity come from one platform, one contract, and one support line. When something doesn't work, there is no vendor pointing at another vendor's network. There is one number to call, one team that owns the outcome, and a 30-minute response commitment during active engagements.
When This Is Not the Right Fit
If your project is in a well-covered urban area with good carrier signal, a small crew count, and a duration under three months, the engagement economics probably don't stack up. We'll say that on the discovery call. The platform is built for large-footprint, multi-phase projects — greenfield industrial builds, remote energy construction, data center campuses, major infrastructure corridors — where the carrier isn't coming and the project can't wait for one.
Vendor-Agnostic in Practice
We don't make money on product margin. We integrate technology that works for the specific site conditions — RF environment, site footprint, IoT device catalog, drone platform, existing GC IT infrastructure. The recommendation you get after a paid site survey is based on what will perform on your project, not on what we have excess inventory of.
Start with a 30-minute discovery call. Tell us the project type, the site location, and the groundbreaking timeline. We'll tell you whether there's a fit and what the engagement would look like. If there is, a site survey in week one has you live in week two.
