A drone program is a multi-year investment. Here is what actually determines whether it survives past year one, and what to ask any vendor before you sign.
The honest answer is the one you buy once. Not the one with the longest spec sheet, and not the cheapest quote for year one. The one that is still improving in year three, still supported in year five, and still the same aircraft your teacher learned on when your second cohort of students walks in. That sounds like a low bar. In drone education it is not. Most programs that die do not die because the drone was bad. They die because the drone went away.
Ask a CTE director what killed their last technology program and you will rarely hear that the equipment did not work. You will hear some version of "the vendor stopped making it."
Two examples every drone educator knows. The Parrot Mambo was the classroom standard for years, and it is gone. The DJI Tello followed a similar arc. Schools that built pathways around those aircraft did not make a bad decision at the time. They made a decision that expired.
Here is the structural reason it keeps happening. Most companies selling drone education are not manufacturers. They are assembling a program out of other companies' parts: someone else's aircraft, someone else's coding environment, someone else's curriculum, someone else's competition. Each of those is a supplier, and each supplier is a point of failure. When any one of them changes direction, discontinues a product, or gets acquired, the whole stack shakes and the school absorbs it.
The more parties standing between your classroom and the people who actually build the hardware, the lower the probability that your multi-year investment survives to year three.
This got harder. On that date the FCC added foreign-made drones and their critical components to its Covered List, and the American Security Drone Act took full effect.
The rule is forward-looking. Schools can keep flying what they already own, and vendors can keep selling models that were already authorized. What changed is everything ahead: new foreign models, and new versions of existing ones, no longer have a routine path into the US market.
The part that matters most for a high school buying today is quieter. Covered drones are out of the FCC process that lets a manufacturer push capability updates. A foreign drone can no longer gain new capability through firmware. A temporary waiver keeps security patches running only through January 1, 2029.
So a foreign-made drone purchased this year is effectively the last of its line, frozen at the capability it ships with, and any successor faces a US authorization path that is now conditional and uncertain rather than routine. More capability likely means a new drone, and the school risks being forced into that swap rather than choosing it.
ASDA also bars federal grant dollars, from Perkins V and ESSER to JROTC, STARBASE, NSF, and NASA STEM budgets, from buying or operating covered foreign drones. If you are funding this with federal CTE money, that is not a preference. That is a constraint.
Full detail and primary sources: the three right questions to ask every drone education company.
The single most useful thing a teacher can do before signing is refuse to evaluate year one in isolation.
Year one is the number every vendor optimizes. Year two is where the recurring stack lands: curriculum subscriptions, platform hosting, per-team competition registration, event fees, consumables, training that was bundled the first time and is not bundled again. When multiple vendors participate in one reseller's product, each of them wants an annual line.
Demand a three-year total with every line item named:
For reference, a 12-drone Hopper program is $5,600 in year one, which includes drones, the Build Fly Code platform, the activity set, starter parts, competition access, and a lifetime hardware warranty on core electronics. Years two and three are $995 each: $500 for the platform renewal and $495 for a spare parts kit. Three-year total, $7,590. No per-team or per-event competition fees, and no separate curriculum subscription. Of course, we reserve the right to increase our prices over time.
Whatever you are considering, get that shape of number from every vendor on your list.
Every vendor in this category uses the word. Most of them mean block coding and stop there.
That is fine for an intro unit and a real ceiling for a high school CTE pathway. A junior who has been building since middle school needs somewhere to go that is not another block.
On Hopper, students program autonomously through FTWCode.ai, our own Blockly environment. We built it, we run it, and it is not licensed from anyone. Beyond that, a Python library for Hopper is shipping soon: setup documentation for Windows, install and configuration steps to interface with the aircraft, and the demo programs from the flight control and computer vision testing we are running now. That is writing code directly against the drone, not against a simulator.
When you evaluate any platform, ask where a student goes after blocks and whether that path exists today or is a roadmap slide.
Teachers do not buy spec sheets. They buy what fits in a period, in the room they actually have.
Hopper flies in a ten by ten by eight foot classroom. That matters more than most vendors admit, because a platform that needs a gymnasium is a platform that competes with the basketball schedule. Since Firmware 2.0, room size is largely no longer the constraint it was. Stability holds in small spaces.
The rhythm is plan, fly, iterate. Students design a mission, write it, run it, watch it fail in some specific way, and go back to the code. Flights are short by design. The drone executes the mission and lands. Even competition runs cap at ten minutes. The rest of the period is thinking, which is the point.
We have programming built for periods from forty five minutes to ninety minutes and up.
The most common thing standing between a school and a working drone program is a teacher who has not had time to learn the technology before they have to teach it. Sometimes it is time. Often it is that this is genuinely new, and being a complete beginner in front of thirty students is uncomfortable.
It is not as hard as it looks, and we are here for that part. But it points at something structural: teacher learning is cumulative. Every year a teacher spends getting fluent in a platform is an investment. When that platform goes end of life, the investment resets to zero and they start over as a beginner.
That is the actual cost of a discontinued drone, and it never shows up on a quote.
We do not do test preparation. We offer three foundational lessons, weather, airspace, and maintenance, taught contextually and hands-on with sample FAA Part 107 questions in each. That is the first three of a planned series of ten. It is real aviation knowledge, and it is deliberately not exam drilling or multiple-choice test strategy.
If a certification pass rate is the metric your program is judged on, a purpose-built test prep provider will serve you better than we will.
High school students crash drones. Constantly. Any vendor who does not address this is avoiding it.
Propeller guards, propellers, and motors are the expendable items. Those you plan for. Batteries have held up well, running hundreds of charge cycles without becoming a recurring problem.
We have not had a Hopper stop working that we could not fix.
One thing worth stating plainly: Firmware 2.0 improved flight control enough that we expect our own spare parts revenue to decline. We are fine with that. A drone that survives the year is worth more to us than a parts order, because the program renews and the next cohort starts on the same aircraft.
The lifetime warranty covers core electronics, the PCB and controller. It does not cover batteries, consumables, crashes, or wear. Ask every vendor to be that specific.
Pennsylvania has been running Build Fly Code statewide and growing since 2020. Programs of every size and geography, six years of continuous operation.
The United States Naval Academy is in its second year using Hopper to train midshipmen.
Those two facts do the same work from opposite ends. One shows the platform holds up over years in ordinary classrooms. The other shows the ceiling.
And the ladder runs both directions. A high school teacher is not just reassured that a service academy tier exists above them. They have access to it. One platform means what gets built for the top rung is visible from every other rung, and what users call for at any altitude shapes what everyone gets.
If you want to evaluate it properly, do it the way we would if we were you. Get the Explorer Kit and learn the aircraft yourself before you put it in front of students. Ask us for temporary platform access and read the actual curriculum, not just a couple of examples we offer on our website. Ask Grace any technical question at any hour. We built her too, and she knows the hardware, the platform, and the curriculum.
Then talk to a cofounder. Not a rep. We are available and happy to connect.
You never start over. Hopper is the drone you buy once, and it keeps getting better.
Funding this with federal CTE dollars? See the Perkins V funding guide for what qualifies and how to write the request.
Planning a program? Start a Program collects every guide in one place, plus free grant research for your school.
Hopper Firmware 2.0 is here. A brand new sensor fusion and flight stability algorithm delivers decisively better flight.
Hopper holds position better, responds more precisely, and handles rough landings without drama. Crash detection was rebuilt, so a normal landing no longer leaves the drone unable to take off again.
Every Hopper gets it. Free. It loads onto drones already in the field through the FTW Fly app in a few minutes. Nothing to buy, nothing to ship back, no new hardware.
That is possible because FTW owns its entire flight control and telemetry stack. American built, wholly owned, zero outside dependency. When the software gets better, the drones already in your classroom get better with it.
Watch the walkthrough, then open FTW Fly and update yours.