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Currently available for select engagements

Hire AI Developer for Solar Companies
Senior, direct, no layers

AI Developer for solar companies: fewer redesigns, fewer install-day surprises, and customers who always know what happens next.

15+
Years Experience
100+
Projects Delivered
6
Countries Served
$25M+
Revenue Enabled
Solar Companies — AI Engineering & Applied AI

A senior ai developer for solar companies

A solar installer does not lose most deals to a better panel. It loses them in the gap between first enquiry and a signed contract, and again between contract and a crew on the roof. Quotes go stale while a design waits for revision, site surveys uncover a roof that the satellite image flattered, and interconnection paperwork sits in a queue nobody owns. Those are the places where an installer's own records already hold answers, if anyone asks them properly.

An AI developer turns those records into working predictions and search, not into a robot that sells panels. The useful questions here are narrow: which quoted households are most likely to sign, how many crew-days a job will really take, which installs are heading for a revisit, and where the answer to a customer's question already sits in past paperwork. Each one maps to a decision a sales manager or operations lead already makes by feel.

That feel is often good, and it does not scale. When the person who knows which roofs hide problems leaves, or when volume doubles in a summer, the guesswork spreads. A model trained on the firm's own quoted, won, lost, and installed jobs can carry part of that judgement, provided its misses are shown plainly. A forecast that hides its failures will be trusted once and then ignored forever, which is worse than no forecast at all. Start with the decision that costs the most when it goes wrong, and the modelling follows from there.

What you get

What this engagement covers for solar companies

  • Quote-to-install scoring — Every past quote carries a story: roof size and pitch, shading, panel count, finance route, how many design revisions it took, and whether it signed. A model learns which combinations tend to close and which stall, so follow-up effort goes to the quotes that respond to a call rather than to every lead equally. The score is shown with the reasons behind it, because a salesperson will not chase a number they cannot explain to a homeowner.
  • Crew-day and revisit forecasting — Install duration is where schedules quietly break. Past jobs, with their roof complexity, equipment choices, crew composition, and weather on the day, predict how long a new job should take and which ones carry revisit risk. Planners use that to stop promising three installs in a week the crew can only finish two of, and to send the experienced pair to the roof most likely to fight back.
  • Document search over permits and inspections — Permit packets, utility forms, inspection notes, and manufacturer specs pile up across drives and inboxes. Search over that material, grounded in the firm's own documents, lets a coordinator pull the last approved layout for a similar roof, or the utility's current interconnection checklist, without retyping questions into a group chat. Nothing is generated from thin air; every answer points back to a source document.
  • Shading and roof-suitability triage — Satellite and aerial imagery, paired with past survey outcomes, can flag roofs where the first design is likely to change after the site visit: heavy tree cover, multiple roof planes, unusual pitch. Flagged jobs get a survey slot earlier and a quote that carries the right caveat, instead of a redesign that eats a week and a customer's patience.
  • Production and performance checks — Once a system is live, expected output from the original design model can be compared with metered production. A persistent gap points at soiling, a failing inverter string, or a monitoring fault, and the firm finds out from its own data rather than from an angry customer months later. This is monitoring arithmetic, not a promise about sunshine.
  • Drift checks as the market moves — Panel prices, net-metering rules, and finance products change, and a model trained on last year's market slowly stops describing this year's customers. Regular checks compare fresh predictions against fresh outcomes, and retraining happens when the gap grows, not on a calendar. A model nobody rechecks is a liability dressed as an asset.
Systems this industry runs

Built around the tools solar companies already use

The work plugs into the systems a solar firm already pays for. Design lives in Aurora Solar, OpenSolar, or Solargraf; roof truth comes from EagleView or Nearmap imagery; performance expectations come from PVsyst or the NREL System Advisor Model; and the job itself lives in Scoop Solar, JobNimbus, HubSpot, or Salesforce. Models read from those systems and write their scores back where coordinators already look, rather than asking the team to adopt another dashboard.

Customer data stays inside the firm's own accounts. Training uses the firm's records under its control, and anything that would move a homeowner's details outside that boundary is a separate, explicit decision, not a default. Where a plain rule answers the question — a checklist, a threshold, a lookup — the rule is used, because a model that needs retraining to express a simple fact is the wrong tool.

How it works

From kickoff to delivery for solar companies

  1. Name the costly decision

    We start by picking one decision and pricing its mistakes: a wasted site visit, a crew booked twice, a quote chased too long. That price decides whether modelling is worth doing at all, and which errors the model must avoid first.

  2. Audit the job history

    Quotes, designs, surveys, installs, and revisits are pulled together and examined for gaps: missing roof data, inconsistent job statuses, outcomes recorded late. Gaps are reported as they are. If the history cannot support the question, that verdict comes before any modelling, not after.

  3. Build against jobs the model has not seen

    Models are trained on part of the history and tested on jobs held back from training, so the reported accuracy reflects new roofs, not memorised ones. Failure cases are demonstrated with real examples, including the roofs the model gets wrong.

  4. Put scores where planners work

    The finished model lands inside the CRM or job board the team already opens, with its reasons visible and an override path for the planner who knows something the data does not. Monitoring and a retraining plan are handed over with it, naming who watches the numbers.

Why Omer

Why hire Omer

  • Install-day realism: Forecasts are built from the firm's own completed jobs, including the awkward roofs, so a prediction carries the memory of past revisits rather than the optimism of a sales target.
  • Scores with reasons attached: No black-box number is handed to a salesperson or planner. Every score arrives with the factors behind it, so a human can disagree with it intelligently.
  • Rules where rules suffice: A checklist beats a model whenever the pattern is clean. Modelling is reserved for the messy judgements, which keeps maintenance costs down and explanations short.
  • Data stays with the firm: Training happens on the firm's records inside its own systems. Homeowner details are not pooled, resold, or used to train anything for anyone else.
  • Checked after launch: Prediction quality is tracked against fresh outcomes, with retraining or retirement when the market moves. The engagement ends with a named owner for that watch, not a handover document nobody reads.
FAQ

Questions, answered

How is this different from an AI agent developer?
An AI developer builds models that inform decisions: predictions, classifications, and search over your own documents. An AI agent developer builds software that acts inside workflows, drafting, triaging, and following up, with approvals and audit trails. For a solar firm, the developer's output is a scored quote list or a crew-day forecast a human acts on; the agent's output is work done on the firm's behalf. They solve different problems, and the choice depends on whether you need better judgement or more hands.
Our data is incomplete. Can AI still help?
Sometimes, and the audit will say so plainly. A question like which quotes tend to stall can often be answered from partial history, with the uncertainty stated alongside the score. A question that needs roof attributes nobody recorded cannot be answered until the recording improves. The audit separates those two cases before any modelling is sold, so you do not pay for a model built on gaps.
Will the model replace experienced staff?
No. It hands experienced staff a second opinion and a sorted list, and it surfaces the jobs that need attention first. Judgement on an unusual roof, a sensitive customer conversation, or a borderline interconnection case stays with people, and the model is designed to defer to them rather than overrule them.
How accurate will the model be?
It is measured on jobs the model never trained on, and reported with its failure cases, before anything goes live. A figure quoted before that evaluation is a guess, and this engagement does not dress guesses as results. If the measured error is too large for the decision, the honest recommendation is not to deploy.
What do you need from us to start?
The decision the model must support, access to the relevant records across design, CRM, and job systems, examples of past jobs including the difficult roofs, and one person who can judge whether the model's answers make sense in the field. That last person matters more than any software choice.
Currently available for select engagements

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