The Katapult Method: A Full-Stack Approach to Utility Pole Data Collection and Engineering

You have 3,000 poles to survey, a crew that just started last month, and a client expecting deliverables by Friday. Traditional data collection would require your most experienced engineers in the field for weeks, manually measuring attachment heights with hot sticks or laser rangefinders and recording everything on paper or tablets. Then your office team would spend additional weeks re-entering that data into permit forms, resolving discrepancies, and potentially building it all out in pole loading software. You know how that story ends: missed deadlines, rework, and margin erosion.

The Katapult Method was built to break that cycle. It is a complete, end-to-end workflow for utility pole data collection, make ready engineering, and pole loading analysis that separates field measurement from office processing, uses photo-based documentation as the single source of truth, and runs entirely on one integrated software platform. The result is a process where less experienced field crews collect more data per day, experienced engineers and designers focus on the work that actually requires their expertise, and every stakeholder works from the same defensible dataset.

This guide covers the full Katapult Method workflow from start to finish: the principles behind it, the four phases of execution, how the software ties it all together, and why this approach consistently outperforms traditional collection and engineering processes.

See how Katapult Pro supports the full Katapult Method workflow.

What Is the Katapult Method?

The Katapult Method is a structured approach to collecting, processing, and delivering utility pole data. It combines a specific field methodology (photogrammetric measurement using calibrated height references) with a software platform (Katapult Pro) that manages the entire lifecycle of that data from job design through final deliverable.

At its core, the method is built on a simple insight: the traditional approach to OSP data collection asks field crews to do too many things at once. Measuring attachment heights, identifying equipment, calling make ready, noting violations, and recording pole attributes all in real time at the pole requires years of experience and still produces inconsistent results. The Katapult Method splits that workload. Field crews focus on capturing high-quality photo documentation quickly and safely. Office engineers then use those calibrated photos to perform measurement, annotation, make ready analysis, and quality control from their desks.

This office-field separation is what makes the method scalable. A two-person field crew using the Katapult Method can document 150 to 200 poles per day because they are not stopping to manually measure, annotate, or make engineering decisions at every pole. Meanwhile, the engineering team processes that data.

The Katapult Method is not a single tool or a piece of software. It is a workflow philosophy backed by over 30+ years of OSP engineering practice, refined through millions of poles processed, and enabled by a software platform purpose-built to support it. And now, in 2026, there are hundreds of other firms using it.

Why the Katapult Method Matters for OSP Engineering Teams

The distribution industry is facing a convergence of pressures that make traditional data collection methods unsustainable. Federal broadband funding through programs like BEAD has created unprecedented demand for pole attachment surveys. FCC timeline requirements continue to tighten. And the labor market for experienced OSP engineers has not kept pace with the volume of work.

For OSP engineering firms, this means the ability to scale field operations without proportionally scaling headcount is a competitive advantage. The firms winning work right now are the ones that can deploy less experienced crews to collect data reliably while their senior engineers focus on design, make ready, and quality control. The Katapult Method was designed specifically for this reality.

For utilities managing joint use programs, the pressure looks different but the need is the same. Applications are arriving faster than teams can process them. Legacy systems that depend on paper pole profile sheets or disconnected spreadsheets cannot keep up with the volume or meet the transparency expectations that pole owners and attachers both need. The Katapult Method provides a shared, photo-documented, auditable dataset that reduces disputes, accelerates reviews, and gives joint use teams a single source of truth for every pole in their footprint.

For broadband deployers and ISPs, the Katapult Method means faster time to revenue. When your engineering partner collects data using this workflow, the resulting dataset is already formatted for pole loading analysis, already integrated with the tools your utility partners require, and already documented with photos that can resolve make ready disputes without additional truck rolls.

The common thread across all three audiences is this: the Katapult Method replaces fragmented, manual, experience-dependent processes with a structured, software-enabled workflow that produces better data in less time.

Core Principles of the Katapult Method

Understanding why the Katapult Method works requires understanding the principles it is built on. These are not abstract concepts. They are practical design decisions that shape every step of the workflow.

Office-Field Separation

Traditional data collection treats the field visit as a single opportunity to capture everything. If a measurement is missed or an attribute is not recorded, someone has to go back. This creates pressure on field crews to be thorough at every pole, which slows them down and introduces errors from fatigue and multitasking.

The Katapult Method inverts this. The field crew's job is to capture comprehensive photo documentation: height shots, midspan shots, ground-level photos, and any additional shots the scope requires. The engineering work, including height annotation, attachment identification, make ready calls, and NESC violation checks, happens afterward in the office, where engineers have time, context, and software tools to do the work accurately.

This separation means a field crew that has been trained for two weeks can produce data that a 15-year veteran would stand behind, because the veteran is the one reviewing and processing it on the back end.

Photogrammetric Measurement

The Katapult Method uses calibrated photography as the foundation for all height and position measurements. A known-height reference (typically a fiberglass measurement stick) is included in field photos, and the software uses that reference to calculate attachment heights, wire sag, and clearance distances from the image.

This approach provides measurements accurate to within 3 inches at heights up to 50 feet. More importantly, every measurement is tied to a dated, geolocated photograph, which means the data is defensible. When a pole owner disputes a make ready call or an attacher questions a clearance measurement, the photo documentation exists to resolve the disagreement without another truck roll.

Structured, Repeatable Workflows

The Katapult Method does not leave collection sequence or scope to individual judgment in the field. Before a crew deploys, a project manager designs the job in Katapult Pro, placing poles on the map, defining the route, and specifying what photos are needed at each location. The field crew follows this design, tapping through a structured collection sequence on their mobile device.

This standardization has two benefits. First, it dramatically reduces missed data. The software knows what has been collected and what has not, and automated QC checks flag gaps before the crew leaves the area. Second, it makes training fast. New hires learn the collection process in days, not months, because the workflow itself guides their work at every pole.

Full-Stack Software Integration

The Katapult Method only works because the software platform behind it handles every phase of the process. Job design, field collection, photo upload, data processing, engineering design, make ready analysis, pole loading export, and final deliverable generation all happen inside one system. There is no manual data re-entry between steps. There are no format conversions between disconnected tools. The data flows from field to deliverable through a single, consistent pipeline.

This integration matters most at the handoff points. When photos upload from the field, they automatically associate with the correct poles in the design. When an engineer annotates attachment heights, those measurements are immediately available for pole loading analysis. When loading results come back from SPIDAcalc or O-Calc Pro, they map directly back to the poles and photos in the project. Nothing gets lost in translation because there is nothing to translate.

The Katapult Method Process: Step by Step

The Katapult Method breaks the data collection and engineering lifecycle into four distinct phases. Each phase has a specific purpose, specific roles, and specific outputs that feed the next phase.

Phase 1: Job Design

Every project starts in the office. A project manager receives the scope of work, typically as a shapefile, KMZ, or list of pole locations, and builds the job design in Katapult Pro. This means placing poles on the map using aerial imagery and street view, defining the collection route for field crews, and specifying the photo requirements for each pole based on the project scope.

Good job design is the difference between a 150-pole day and a 200-pole day in the field. When the design is thorough, field crews spend their time collecting, not figuring out what to collect. When it is sloppy, every ambiguity becomes a decision point in the field that slows collection and risks missed data.

For a deep dive into this phase, see The Katapult Method: Part 1, Job Design.

Phase 2: Field Data Collection

With the job designed, a two-person field crew deploys with a DSLR camera, a smartphone running Katapult Pro's mobile interface, and a calibrated height reference stick. The crew follows the designed route, capturing height shots, midspan shots, and additional photos at each pole per the project scope.

The collection workflow is structured around time-stamped "buckets." Each photo is tied to a specific pole or midspan in the design based on when it was taken relative to the crew's progress through the route. This means association, the process of matching photos to the right poles, happens automatically when the photos upload.

A well-trained crew using this method collects data significantly faster than traditional measurement approaches because they are not stopping to record numbers, fill out forms, or make engineering judgments at the pole. They are capturing the raw documentation that will support all of those activities later.

For details on field equipment and the collection process, see The Katapult Method: Part 2, Data Collection.

Phase 3: Photo Upload and Processing

When the crew returns from the field, photos are uploaded to Katapult Pro's cloud servers and automatically associated with the correct poles in the job design. The first processing step, called photofirsting, involves calibrating height shots (using the known reference in the image), classifying photo types, and entering pole tag and birthmark information.

This phase is where the office-field separation pays off. Photofirsting can be done by staff with relatively limited industry experience because the task is clearly defined: calibrate the reference, classify the photo, enter the tag. It does not require engineering judgment. A photofirst team can process thousands of photos per week, keeping pace with multiple field crews operating simultaneously.

For the full photo upload and association workflow, see The Katapult Method: Part 3. 

Phase 4: Data Processing and Delivery

Once photos are calibrated and associated, the engineering team annotates attachment heights, identifies equipment, performs make ready analysis, and exports data for pole loading analysis. This is where experienced engineers add the most value, using the photo documentation to make informed engineering decisions without needing to visit the field.

Katapult Pro exports directly to SPIDAcalc, O-Calc Pro, and DDS, so loading analysis happens within the same ecosystem. Make ready calls, violation flags, and design recommendations all stay connected to the original photo documentation and pole data. Final deliverables, whether permitting sheets, map sets, pole profiles, or custom exports, generate at the click of a button.

For the complete data processing workflow, see The Katapult Method: Part 4, Data Processing.

Struggling to scale data collection without sacrificing quality? The Katapult Method and Katapult Pro give your team the workflow and tools to collect better data, faster, with fewer experienced staff in the field.

Schedule a Demo | Learn More About Katapult Pro

Software and Tools Behind the Katapult Method

The Katapult Method is a workflow, but it depends on software to execute at scale. Katapult Pro is the platform that ties every phase together, and understanding its role in the workflow helps explain why the method works so consistently.

Job Design and Project Management

Katapult Pro's map-based interface lets project managers build job designs using aerial imagery, GIS data, and client-provided shapefiles. Poles are placed on the map with the attributes and collection requirements that field crews will follow. Default workflows and design templates reduce setup time for common project types, while the platform's configurability supports custom scopes when clients have unique requirements.

Mobile Data Collection

In the field, Katapult Pro runs on standard smartphones and tablets, guiding crews through the collection sequence defined in the job design. Time-bucketed photo capture ties every image to the right location automatically. Offline mode supports collection in areas with limited cellular coverage, syncing when connectivity returns.

Photo Processing and Annotation

On the processing side, Katapult Pro's calibration tools let staff calculate accurate heights from field photos using the known reference in the image. Annotation tools support marking attachment heights, equipment types, conductor specs, guying, and other pole attributes directly on the photo. Automated QC checks flag missing data, suspect measurements, and incomplete poles before the project moves to engineering review.

Engineering and Export

For engineering, Katapult Pro provides make ready views, 3D modeling tools for complex attachment scenarios, and direct export to SPIDAcalc, O-Calc Pro, and PoleForeman for pole loading analysis. Deliverables including pole profiles, map sets, annotated photos, and custom exports generate from the processed data without manual compilation.

Extensibility

For teams with unique operational needs, Katapult Pro's API enables custom integrations and extensions. Some users have built their own project management dashboards, automated team assignments, and KPI tracking tools on top of the platform, turning Katapult Pro into the data backbone for operations that extend well beyond standard engineering workflows.

Common Challenges and How the Katapult Method Addresses Them

Scaling Field Crews Without Experienced Staff

Traditional data collection requires crews who understand attachment types, NESC clearances, and engineering terminology well enough to record accurate measurements in real time. That experience takes years to develop. The Katapult Method's office-field separation means new hires learn a structured photo collection process in days and start producing usable data almost immediately, because the engineering interpretation happens in the office.

Rework and Roll-Backs from Incomplete Data

When field data comes back with gaps, someone has to go back to the pole. These return trips are expensive and delay project timelines. The Katapult Method reduces rework through two mechanisms: structured collection workflows that define exactly what photos are needed at each pole, and automated QC checks that flag missing data before the crew leaves the area.

Make Ready Disputes Between Pole Owners and Attachers

Disputes about attachment heights, clearance violations, and existing conditions are common in the permitting process. Without defensible documentation, these disputes require additional field visits to resolve. The Katapult Method's photo-based approach provides dated, geolocated, measurement-calibrated images of every pole, creating an auditable record that both parties can reference. Virtual rideouts in Katapult Pro allow stakeholders to review the data collaboratively without anyone driving to the pole.

Disconnected Tools Creating Data Silos

Many teams collect data with one tool, process it in another, run pole loading in a third, and compile deliverables in a fourth. Each handoff introduces opportunities for data loss, format errors, and version confusion. The Katapult Method runs on a single platform from design through delivery, eliminating manual data transfers between disconnected systems.

Meeting FCC Timeline Requirements

Shortened FCC timelines for pole attachment processing leave less room for the rework and delays that manual processes create. The Katapult Method's structured workflow, automated QC, and integrated deliverable generation compress the timeline from field collection to final submission, helping teams meet regulatory deadlines without cutting corners on data quality.

Training New Engineers on Complex Workflows

The OSP engineering industry has a well-documented training bottleneck. Bringing a new engineer up to speed on traditional workflows can take six months or more. The Katapult Method gives new team members a clear entry point. Photofirsting and basic annotation are learnable within weeks, and the structured workflow in Katapult Pro guides less experienced staff through processes that used to require years of tribal knowledge. Katapult Pro's hosted utility standards ensure new engineers work to the right specifications from day one.

Frequently Asked Questions About the Katapult Method

What is the Katapult Method? The Katapult Method is a full-stack workflow for utility pole data collection, make ready engineering, and pole loading analysis. It uses photo-based field measurement and integrated software to separate field collection from office engineering, enabling faster data capture with less experienced crews and more accurate processing by office-based engineers.

How does photogrammetric data collection work? Field crews photograph poles and midspans using a DSLR camera alongside a calibrated height reference (typically a fiberglass measurement stick of known height). Katapult Pro uses the reference in the photo to calculate precise attachment heights and clearance distances, delivering accuracy within 3 inches at heights up to 50 feet.

What equipment does a field crew need? A standard collection crew consists of two people equipped with a DSLR camera, a smartphone or tablet running Katapult Pro, and a calibrated height reference stick. No laser rangefinders, hot sticks, or specialized GPS equipment is required for most standard scopes.

How many poles can a crew collect per day using the Katapult Method? A well-trained two-person crew using the Katapult Method can typically collect 150 to 200 poles per day, depending on terrain, access conditions, and project scope. This throughput is significantly higher than traditional manual measurement methods because crews are capturing photos, not recording measurements or making engineering calls at each pole.

How does the Katapult Method compare to traditional data collection? Traditional collection requires experienced engineers to measure, record, and make engineering judgments at every pole in the field. This limits throughput, creates training bottlenecks, and produces data that is often inconsistent and difficult to audit. The Katapult Method captures photo documentation in the field and performs all measurement and engineering work in the office, producing faster throughput, more consistent data, and a defensible photographic record.

What pole loading software does Katapult Pro integrate with? Katapult Pro exports directly to SPIDAcalc and O-Calc Pro, in addition to the integrated, real-time loading engine built into the platform.

Can the Katapult Method support different project scopes? Yes. The Katapult Method supports pole attachment permitting, make ready engineering, pole loading analysis, distribution inventory, telecom audits, double wood surveys, and other common OSP scopes. Katapult Pro's configurable workflows let project managers tailor the collection requirements for each project type.

Is the Katapult Method only for Katapult Engineering's internal teams? No. While Katapult Engineering developed the method for its own engineering services operations, the workflow is available to any team using Katapult Pro. Utilities, OSP engineering firms, and broadband deployers across the industry use the Katapult Method and Katapult Pro to run their own collection and engineering operations.

Ready to Collect Better Data and Hit Your Deadlines?

The Katapult Method is not a theory. It is a tested, operational workflow that has been refined through over 30 years of OSP engineering practice and millions of poles processed. It was built by an engineering team that faced the same challenges you face today: too many poles to survey, not enough experienced staff to do it, and clients who expect accurate data delivered on time.

Whether you are an OSP engineering firm looking to scale your capacity for BEAD-funded projects, a utility modernizing your joint use management process, or a broadband deployer trying to accelerate your attachment timelines, the Katapult Method and Katapult Pro provide the workflow and the platform to get there.

Schedule a call with our team to see how the Katapult Method can work for your projects. Get started here.