How Make-Ready Work Supports Aerial Fiber Builds

What is make-ready work?

Make-ready is everything a pole owner requires before a new attacher can put hardware on a pole. Sometimes that is nothing at all, because the pole has room and the existing attachments are compliant. Often it is a rearrangement: lowering or raising an existing communications attachment to open the space a new strand needs while preserving separation from the supply space above.

The term covers engineering as well as construction. The engineering side produces the field data, the loading analysis and the make-ready design. The construction side executes it: transfers, guy and anchor installation, riser and ground corrections, and pole replacement where the analysis says the existing pole cannot carry the new load.

For a fiber builder, make-ready is not a side task. It is the gate. No permit to attach means no legal attachment, and building past that gate creates plant that a pole owner can order removed.

Why does make-ready control the schedule?

The sequence is serial by nature. An application goes to the pole owner. A survey follows. A loading analysis follows the survey. A make-ready estimate follows the analysis. Payment follows the estimate. Notification to existing attachers follows payment. Then the existing attachers do their transfers, and only then does the permit to attach issue.

Each of those handoffs has a queue. The delays that hurt most are the ones outside the fiber builder's control: the pole owner's engineering backlog, and the response time of existing attachers who have no schedule pressure from your project. A single pole with a slow attacher can hold an entire route segment.

This is why experienced builders front load make-ready applications, submit in route segments that can be built independently, and track pole status at the individual pole level rather than at the route level. Knowing that ninety percent of a route is ready is useless if the remaining poles sit in the middle of it.

What happens during a pole survey?

The field survey collects the data the loading analysis needs. That means pole identification, height and class where it can be determined, existing attachment heights measured for every attacher, span lengths to adjacent poles, the position and condition of guys and anchors, riser and ground conditions, and midspan clearance measurements over roadways and driveways.

The survey also documents existing violations. Poles carry accumulated history: an attachment that drifted below clearance, a strand attached in the wrong space, a guy that was cut during a driveway job and never replaced. Those conditions get flagged because a new attachment typically cannot be approved onto a pole that is already out of compliance.

Good survey data pays for itself twice. It makes the loading analysis defensible, and it gives the construction crew a pole by pole picture of what they will find, which is the difference between a productive day and a day spent discovering surprises.

• Pole identification: owner tags, position and route reference.
• Existing attachment heights, by attacher, in the communications space.
• Span lengths and midspan clearances over roads, driveways and pedestrian areas.
• Guy and anchor presence, direction and condition at corners and dead ends.
• Existing violations and defects that must be corrected before a new attachment.
• Field constraints for construction: access, traffic control needs, tree conflicts.

What does a pole loading analysis actually check?

A loading analysis models the pole as a cantilever fixed at the groundline. It sums the vertical weight of the pole and everything on it, the wind force on the pole and on every attachment and span, and the horizontal tension delivered by each strand and conductor. It then compares the resulting moment at the groundline to the strength of that pole class, reduced by the safety factor the applicable grade of construction requires.

Two inputs move the result most. The first is wind, because wind force scales with the exposed area of every cable in every span, which is why an added cable that weighs little can still fail a pole. The second is unbalanced tension, which is why corner poles and dead ends so often need new guying even when a tangent pole a hundred feet away passes easily.

When the analysis fails, the options are ordered by cost: rearrange attachments, add or upsize guying and anchors, or replace the pole with a taller or stronger class. Pole replacement is the outcome everyone tries to avoid, because it pulls in every existing attacher for transfers and adds the longest lead time in the process.

Simple make-ready versus complex make-ready

Pole owners and regulators distinguish between work that is routine and work that carries real risk. The line generally falls at whether the work requires an outage, touches the supply space, or reduces safety or service reliability. That distinction matters because it determines who can do the work and how long approval takes.

What is one-touch make-ready, and when does it apply?

One-touch make-ready, usually shortened to OTMR, lets the new attacher do all of the simple make-ready on a pole with one qualified contractor, instead of waiting for each existing attacher to move its own facilities in turn. The Federal Communications Commission adopted it in 2018 for poles under federal pole attachment rules, with the aim of cutting the serial waiting that slows aerial builds.

OTMR is limited on purpose. It covers simple work in the communications space, such as moving an existing cable or adding a bolt position. It does not cover complex make-ready, work in the electric supply space, or anything that could cause an outage. Existing attachers still get advance notice and the right to inspect the finished work, and the new attacher is responsible for damage its contractor causes.

Whether OTMR is available on a given pole depends on who owns it. Federal rules do not reach poles owned by municipal utilities or electric cooperatives, and some states regulate pole attachments themselves. Check the owner's attachment agreement or tariff before planning a schedule around it. Where OTMR does apply, accurate survey data and a contractor who meets the owner's qualifications are what make the shorter path work in practice.

Which pole owners will a Central Florida build deal with?

Often more than one on a single route. Investor-owned utilities such as Florida Power & Light and Duke Energy Florida own many of the poles across the region, but municipal utilities own the poles in their own service areas. Examples include Orlando Utilities Commission, Kissimmee Utility Authority, Lakeland Electric and the Utilities Commission of New Smyrna Beach. Electric cooperatives own poles in some rural areas, and incumbent telephone companies own some poles too.

Each owner runs its own application process, its own engineering queue and its own attachment agreement. A route that crosses from one owner's territory into another's may need two applications, two loading analyses and two sets of make-ready estimates, on two different timelines. Mapping pole ownership during route design, before any application goes in, keeps that from turning into a surprise halfway through the build.

What causes make-ready delays, and how do you reduce them?

Most delays are informational rather than physical. The work itself is usually a day or less per pole. The waiting is caused by incomplete applications, survey data that does not match field conditions, disputes about who owns an existing violation, and attachers who have not been given a reason to prioritize a transfer.

The practical countermeasures are unglamorous. Submit complete applications with accurate field data. Photograph every pole during survey so a disputed condition can be resolved from the record instead of a second visit. Track status pole by pole and escalate on a fixed cadence rather than waiting. Keep a clear list of which poles are permitted and buildable so crews are never sent to a segment that is not ready.

• Incomplete or inaccurate application data that forces a resubmittal.
• Existing violations discovered in survey that must be assigned and corrected first.
• Slow transfers by existing attachers, particularly on pole replacements.
• Complex work that needs a scheduled outage and utility crew availability.
• Route changes after survey, which restart the analysis for the affected poles.
• Vegetation conflicts that need trim coordination before a crew can attach or lash.

How should construction be sequenced around make-ready?

Build in permitted segments with defined endpoints. A segment that starts and ends at a splice location, a riser, or a transition to underground can be completed, spliced and tested on its own. A segment that ends in the middle of a span because the next pole is not ready produces stranded cable, extra slack storage, and a return mobilization.

Underground work is often the right thing to run in parallel. Road crossings, riser bores and conduit at building entrances rarely depend on pole owner approval, so a contractor with both aerial and underground capability can keep production moving while make-ready clears. That is one of the practical arguments for a single contractor holding both scopes.

Verify make-ready before mobilizing the lashing crew. A quick pole by pole confirmation that the required transfers actually happened, and that the space the design assumed is open, avoids the most common wasted day in aerial construction: a full crew standing at a pole that still has an attachment in the way.

What make-ready records should exist at closeout?

The closeout package should let a third party reconstruct the attachment authority for every pole on the route. That means the permit or attachment approval reference, the final attachment height at each pole, the make-ready that was performed, and photo documentation showing the completed condition.

Post construction inspections by pole owners are common, and the audits that go badly are the ones where nobody can produce the record. A photo of the finished attachment at the approved height, taken the day it was built, resolves in seconds what otherwise becomes a field visit and a dispute.

Strilla Communications Company provides make-ready support alongside aerial construction across Volusia County and Central Florida, with pole level status tracking, daily production reporting and closeout documentation that matches what was actually built.