Survey-grade drone mapping your engineers can actually use
Drone LiDAR, orthomosaic mapping, and 3D documentation across Florida. Dense point clouds, measurable maps, topos, and volumes, tied to real-world coordinates and delivered in the formats your surveyors and engineers already work in.
A measurable site, ready for design
An engineer can’t design on a photograph. What a civil team needs is data it can measure against: a map where a distance is a real distance, a surface you can pull a contour or a volume from, a point cloud you can model on. One is something to look at; the other is something you can build on.
We capture to that standard. Ground control and RTK or PPK workflows tie the data to real coordinates, so the orthomosaic, the terrain model, and the point cloud all agree with the ground and with each other. Then we deliver in your formats, so it drops into your CAD or GIS instead of sitting in a viewer nobody opens.
Florida terrain is part of the job. Flat doesn’t mean simple: light vegetation, water, and sprawling corridors all change how a site should be flown and whether photogrammetry or LiDAR is the right tool. We choose based on the site and the deliverable, from a single Orlando parcel to a coastal corridor.
Mapping and 3D products, matched to the deliverable
We choose the sensor and workflow around the deliverable, not the other way around.
Drone LiDAR & point clouds
Dense 3D point clouds that reach the ground through light vegetation, for topos and civil design.
Orthomosaic mapping
Stitched, geo-referenced, measurable site images for plans, area, and documentation.
Topographic surveys
Digital terrain and surface models with contours, tied to control for engineering use.
3D models & meshes
Textured 3D reconstructions of sites, structures, and stockpiles for review and design.
Volume measurement
Cut, fill, and stockpile volumes measured from the data, repeatable visit to visit.
CAD / GIS-ready files
LAS, GeoTIFF, DEM, DTM, DXF, and contour files delivered clean and ready to drop directly into Autodesk Civil 3D, Bentley MicroStation, ArcGIS, and standard viewer environments.
Engineering deliverables need engineering-grade gear
We don’t rely on prosumer cameras for engineering deliverables. Our fleet uses heavy-lift enterprise platforms equipped with high-density LiDAR payloads, capable of multiple returns to penetrate dense vegetation.
Every mapping mission is tied to RTK or PPK base stations and precise ground control points (GCPs) to ensure absolute global accuracy, so the data lines up with the real world and with your existing survey.
ASPRS-compliant accuracy
Our deliverables are engineered to meet strict ASPRS (American Society for Photogrammetry and Remote Sensing) positional accuracy standards. Depending on site conditions and the sensor deployed, we deliver sub-centimeter relative and absolute accuracy, giving your survey teams data they can legally and confidently build on.
What survey-grade LiDAR actually produces
The same corridor, captured as raw imagery, resolved to a bare-earth surface, and delivered as engineering contours.
Built for the people who measure things for a living
- Civil engineers designing on real terrain instead of an old survey.
- Surveyors extending their reach with aerial capture tied to control.
- Contractors tracking earthwork and stockpile volumes across a job.
- Developers scoping a raw parcel before a shovel moves.
- Facilities & utilities documenting large sites as a measurable record.
- Architects starting from an accurate 3D of the existing conditions.
Where we map across Florida
We map statewide. Choose your metro to start.
Have a site or an asset that needs documenting?Tell us the asset and the deadline. We’ll scope it and price it.
More of what we fly
Vegetation penetration and topographic deliverables from an engineering-grade LiDAR pipeline
The Challenge
Traditional topographic survey for raw site acquisition is punishing work, especially on properties with dense tree canopy, heavy undergrowth, and complex utility corridors. Standard drone photogrammetry struggles here because optical sensors can’t see past the leaf layer to map true ground, which produces inaccurate Digital Terrain Models and derails earthwork budgets.
The Solution
We deployed an aerial LiDAR system built for multi-return pulse penetration. Flying an optimized grid, the active sensor bypassed the canopy to capture high-density point clouds of the true earth surface. Our geospatial analysts then ran ground-classification filtering, stripping out dense vegetation, structural artifacts, and overhead power line noise to isolate a clean, survey-ready bare-earth dataset.
The Result
From the refined ground points we generated one-foot topographic contour intervals and a highly accurate DTM. The single-source aerial workflow cut field data collection timelines by over 70 percent against boots-on-the-ground surveying. Delivering topographic intelligence at sub-centimeter relative vertical accuracy gave the civil engineering team exactly what they needed to lock in grading, volume calculations, and stormwater drainage design without costly field re-work.
One dataset, three stages of processing
What arrives as a wall of points becomes a filtered ground surface, then a contour set an engineer can actually design against.
Drone mapping and LiDAR questions
What engineers, surveyors, and developers ask us most about aerial mapping data.
What’s the difference between orthomosaic mapping and drone LiDAR?
Orthomosaic mapping stitches hundreds of overlapping photos into one measurable, geo-referenced image of your site, which is ideal for site plans, area, and progress. LiDAR uses a laser to build a dense 3D point cloud and can measure the ground even through light vegetation, which makes it the right tool for topographic surveys and civil deliverables. We pick based on what you actually have to measure, and sometimes run both.
How accurate is the data?
Survey grade when the project calls for it. We use ground control points and RTK or PPK workflows to tie the data to real-world coordinates, so it holds up for engineering and design. If a job only needs relative accuracy for planning, we can scope it lighter and cheaper.
What formats do you deliver?
The ones your team already uses: point clouds (LAS or LAZ), orthomosaics (GeoTIFF), digital surface and terrain models, contours, DXF or CAD-ready files, and 3D meshes. Tell us the software you drop it into and we deliver so it lands clean the first time.
Can you handle vegetation and tricky terrain?
Yes, which is where LiDAR is worth the extra step. A photo map sees the top of the canopy; LiDAR pulses reach the ground between the leaves, so you get real terrain under light brush. Florida sites with palmetto and scrub are exactly where this matters.
How large a site can you map?
From a single parcel to a multi-hundred-acre corridor or portfolio. Larger sites are flown in planned passes and tied together with control, so the accuracy holds across the whole area. Give us the boundary and the deliverable and we’ll scope the flight.
Scope a mapping project
Send the site boundary and the deliverable you need, plus the software it has to land in. We’ll recommend photogrammetry or LiDAR, tell you the accuracy we can hit, and price it out.
100 E Pine St, Suite 110 · Orlando, FL 32801
FAA Part 107 Certified · Fully Insured
Tell us about the site
A few project details is all we need to get started.