GTM Playbook for Aviation and Aerospace — The Complete Operator Guide in 2027

The go-to-market motion in one picture

The reason a generic enterprise software Playbook fails in Aviation is that the buying decision is not made by a budget owner responding to a business case. It is made by an engineering organization responding to a program schedule and a regulator. Revenue arrives on the far side of two gates that most software companies have never encountered: an aircraft program window that opens once every several years, and a certification process that costs seven figures and takes a year and a half minimum.

That reshapes the entire funnel. In SaaS, the funnel narrows from awareness to close in a few months. In Aerospace, the funnel has a long pre-qualification lobe — standards participation, air show presence, published technical work — that runs 18 to 36 months before a single opportunity is formally created. Vendors that treat this lobe as "marketing" and underfund it discover they are structurally ineligible for RFPs when the program window finally opens.

The channel mix that reflects this reality weights heavily toward events and technical credibility rather than digital demand generation. A useful default for the first $25M of ARR is roughly 30% events, 25% partner, 20% standards and regulatory, 15% inbound trade press, and 10% direct outbound. The outbound number looks anomalously low to a SaaS operator; it is correct. Cold outbound into an OEM chief engineer's inbox does not create a program slot that does not exist. What outbound does well here is warm the specific named accounts you already know have a program window opening, and drive registration for the technical sessions you are speaking at.

Events are the anchor because Aviation still transacts face-to-face at a small number of enormous gatherings. Paris Air Show and Farnborough International alternate years and function as the industry's two annual clearing houses — a serious booth-plus-hospitality presence at either runs well into six figures once you count space, build, staffing, travel, and customer entertainment, and the largest exhibitors spend into seven. Dubai Airshow and Singapore Airshow serve the Middle East and Asia-Pacific fleets. The MRO series (MRO Americas, MRO Europe, MRO Asia) is where maintenance and engineering budgets actually live and is far cheaper to attend meaningfully. AIAA SciTech is where technical credibility is earned in front of the engineers who will later write your requirements into a spec. NBAA-BACE covers business aviation, a genuinely distinct segment with its own operators and OEMs.

The standards and regulatory channel is the one that has no analogue in ordinary B2B software. Participating in RTCA committees, SAE standards working groups, and regulator workshops is not lobbying and it is not thought leadership — it is how you learn what the requirement language will say 24 months before it appears in a procurement document, and how the engineers writing that language come to know your name and your technical position. Budget it as a channel with headcount attached, not as a conference travel line item.

The partner channel deserves specific attention because it does double duty. The hyperscalers run dedicated aerospace and satellite practices with co-sell motions and marketplace listings, which solves procurement friction at airlines that have already committed cloud spend. The large consultancies with aerospace practices — the industrial-transformation arms of the global SIs — control the digital-thread and MRO-modernization programs where your software is one component of a much larger engagement. And the OEMs themselves run digital services businesses (Boeing Global Services, Airbus Services, GE Aerospace's digital arm, Pratt & Whitney's EngineWise, Rolls-Royce's IntelligentEngine) that will resell or embed third-party capability into their own fleet offerings. That last route is the highest-leverage and the slowest: an OEM embed can put your product on hundreds of tails at once, and it typically takes two to three years to negotiate.

Who owns what across the revenue org

The org design mistake that kills aerospace-tech companies is hiring a conventional enterprise sales team and expecting it to work. The functions are different because the buying process is different, and the sequencing matters as much as the roles.

The founding configuration that reliably clears Series A is a technical or product founder paired with a co-founder who has spent 15 to 30 years inside the industry — at an OEM, an airline's technical operations group, a defense prime, a large MRO, or an aerospace consultancy. This is not about a rolodex, though the rolodex helps. It is about knowing, without having to ask, which program is at which gate, what a Type Certificate amendment implies for your integration timeline, and why the VP of Engineering cannot commit to anything until the chief engineer signs off. Companies without this profile spend their first two years learning it expensively.

The first commercial hire is an Airline or MRO account executive, typically around $2M ARR. Airlines and MRO providers are the right first target because their cycles are the shortest in the industry (12 to 24 months) and their decisions are operational rather than program-gated. Candidates come from the aerospace divisions of the large avionics and systems suppliers, from OEM services organizations, or from airline technical operations itself. Realistic OTE lands in the $280K–$420K range with a 50/50 to 60/40 split, and you should expect a first-year quota of $1.5M–$2.5M — deliberately modest, because the first year is spent building the reference account.

The first Solutions Engineer follows at roughly $3M ARR and is arguably the more important hire. In Aerospace the SE is not a demo resource; they are the person who can sit in a design review, speak to development assurance levels, explain how your software artifacts map to the customer's certification evidence package, and survive cross-examination by a chief engineer. A professional engineering credential or a degree in aerospace or mechanical engineering is a genuine filter here, not a nice-to-have. Expect $260K–$400K OTE, weighted more toward base than an AE.

The first OEM account executive comes later, around $5M ARR, because OEM selling is a different sport. This person manages a 24-to-48-month cycle against a program schedule, builds relationships across chief engineering, supply chain, and program management simultaneously, and produces almost no revenue in year one by design. Compensating them on annual bookings alone guarantees they quit before the deal lands. Use a mix of bookings, program-milestone MBOs, and multi-year deal credit. OTE runs $300K–$480K.

Between $10M and $20M ARR, two roles become non-optional. A VP of Sales to run the multi-segment motion, and a Head of Certification who owns the airworthiness program end to end — DO-178C for software, DO-254 for airborne electronic hardware, DO-160 for environmental qualification, DO-326A for airworthiness security, and ARP4754A for system-level development assurance. This role sits organizationally between engineering and revenue and is customer-facing. OTE in the $300K–$500K range, heavily base-weighted. Before this hire exists, certification timelines slip unpredictably and every slip is a deal slip.

Customer Success in Aerospace is program management, not adoption coaching. Hire from aerospace program-management backgrounds at $220K–$340K. The job is running multi-year deployment programs across fleets, managing the service-to-license ratio, and identifying the next aircraft type or region to expand into. A BDR function is worth building only once you have a repeatable named-account list — aerospace-fluent BDRs at $85K–$115K OTE, measured on meetings with named engineering and technical-operations leaders rather than raw activity volume.

Metrics, targets, and realistic ranges

Aerospace-tech benchmarks look alarming next to SaaS benchmarks, and the mistake investors and operators both make is applying SaaS thresholds to them.

Sales cycle is the first divergence. OEM enterprise deals run 24 to 48 months because they are pinned to an aircraft program schedule rather than a fiscal year. Airline deals compress to 12 to 24 months. Tier-1 supplier and MRO deals also run 12 to 24 months, often faster when the buying decision is downstream of an OEM mandate. Any forecast model built on quarterly close probabilities will be wrong; forecast by program gate instead — concept, preliminary design review, critical design review, first flight, entry into service — and track which gate each opportunity is approaching.

Deal size scales with the buyer tier. OEM engagements land in a $1M–$25M annual contract value band, with the top end reserved for platform-wide program engagements. Airlines run $300K–$5M depending on fleet size, with the driver being tail count rather than seat count. Tier-1 suppliers and MRO providers land at $200K–$2M. When these are structured as long-term services agreements aligned to fleet lifecycles — and 20 to 30 year aircraft lifecycles make 10-to-25-year LTSAs entirely normal — total contract value dwarfs ACV, which is why aerospace boards should track TCV and remaining performance obligation alongside ARR.

CAC payback is the number that frightens generalist investors. At the OEM tier, 48 to 72 months is normal and not a sign of a broken motion — it is the arithmetic consequence of a three-year cycle with a five-figure-per-month fully loaded pursuit cost. What matters is whether the payback is followed by a contract with a decade of duration. At the airline tier, payback should land considerably faster, and if it does not, your qualification is broken rather than your economics.

Net revenue retention should sit at 110–120% for platforms that can expand across aircraft types, fleets, and regions. The expansion vectors are specific: additional aircraft programs at an OEM, additional fleet types at an airline, additional stations or lines at an MRO, and additional geographies where a different regulator applies. NRR below 100% in Aerospace almost always means you sold a point solution into a single program with no natural expansion surface — a structural problem, not a customer-success problem.

Win rate on genuinely qualified pipeline runs roughly 20–28%. The word "qualified" is doing enormous work: an opportunity is only qualified in Aerospace if the program window is open, the certification path is understood and funded, and an engineering sponsor exists who can carry your requirement into the specification. Pipeline that fails any of those three tests should not be in the number, and a large share of the pipeline most aerospace-tech companies carry fails at least one.

Services-to-license ratio in year one typically runs 2.0x to 5.0x. This is uncomfortable for a software gross-margin story and is unavoidable — integration into avionics, maintenance systems, and flight-operations infrastructure is genuinely hard work. Plan for the ratio to compress over the life of the account rather than pretending it will be low at the start, and price services at a real margin rather than giving them away to protect a license number.

Certification cost and duration belong in the metrics pack because they are a cost of revenue. Software certification under DO-178C spans roughly 12 to 36 months depending on the design assurance level, with DAL A (where failure is catastrophic) at the long and expensive end. Budget seven figures for a serious certification effort, more for the highest assurance levels, and carry it as a gating dependency on the revenue plan rather than as an R&D line that engineering will "handle."

Where the motion breaks down

Three failure modes account for most of the aerospace-tech company failures that are not simply product failures.

The first is underestimating certification. Founders coming from software consistently model certification as a compliance step to be completed near launch. It is not — it is an 18-to-36-month engineering program with its own artifacts, its own reviews, its own designated engineering representatives or delegated organization, and its own multi-million-dollar cost base. The consequence of discovering this late is severe: a company with a signed OEM commitment and no certification path has a deal that will not close and a customer whose program schedule it is now jeopardizing. The correction is to start the certification program before you have the customer who needs it, treat the design assurance level as a product decision made at architecture time, and hire or contract the certification expertise early. Retrofitting DO-178C evidence onto a codebase written without it in mind is dramatically more expensive than building for it from the start.

The second is missing the program window. Technology inclusion decisions on a new aircraft program are typically made three to five years before entry into service, and programs run five to ten years from concept to EIS. A vendor that shows up after critical design review has, in practical terms, missed that airframe entirely and must wait for a derivative program or an all-new aircraft — which may be a decade away. The correction is to maintain a program map: every active and announced program at every target OEM, its current gate, its expected EIS, and the window during which your category gets specified. That map is the actual territory plan; account lists without it are guesswork. It also explains why standards participation and air show presence are worth funding years before there is revenue to justify them — they are how you are already known when the window opens.

The third is pricing in the wrong unit. Aviation buyers reason in aircraft, engines, flight hours, cycles, and maintenance events. A per-user or per-seat price does not map to anything they budget for, and proposing one is read — correctly — as evidence that you do not understand the industry. Worse, it caps your Aerospace revenue at the number of humans who touch the tool rather than scaling with fleet size. The correction is to pick the unit that tracks the value: per-aircraft or per-tail for connected-aircraft and predictive-maintenance software, per-engine or per-flight-hour for engine health and performance, per-program or per-platform for custom-engineered software delivered into an OEM program, per-event for maintenance and AOG support tooling, and per-data-event for aviation data services.

Two secondary failure modes are worth naming. Export control catches companies off guard when a defense-adjacent opportunity arrives: ITAR and EAR obligations affect who may touch the code, where it may be hosted, and which nationals may attend a design review, and retrofitting compliance mid-deal is painful. And single-segment concentration — building entirely around airlines because their cycles are shorter, then discovering the OEM motion requires a different team, a different Playbook, and a different two years to build.

How to sequence the build

The sequencing question is which order to attack the three segments, and the answer for nearly every aerospace-tech company is the same: land in the operational segment where cycles are shortest, use those references to earn OEM credibility, and expand outward along the fleet.

Start with a beachhead defined narrowly across three dimensions at once — one functional domain, one platform type, one customer segment. "Predictive engine health for narrowbody fleets at large carriers" is a beachhead. "AI for Aviation" is not. The narrow definition is what lets a small company produce a Complete, defensible reference in 18 months instead of a set of half-finished pilots.

From the beachhead, expand along functional adjacency first (engines to airframe structures to cabin systems to avionics), platform adjacency second (narrowbody to widebody to regional to business aviation to defense platforms), and segment adjacency third (airline to MRO to Tier-1 to OEM). Functional expansion is cheapest because the buyer and the certification basis are already familiar. Segment expansion is most expensive because it requires new people and a new sales process.

The operating cadence that holds this together has three loops. A weekly certification-pipeline standup with the CRO, Head of Certification, and customer success lead, reviewing active certification efforts by program, submissions in flight with regulators, and anything at risk of slipping — because a certification slip is a revenue slip and should appear in the forecast the same week it happens. A monthly safety and airworthiness review with the CTO and certification lead, covering in-flight certification efforts, any customer-reported airworthiness concerns, and the impact of new airworthiness directives or safety bulletins. And a quarterly regulatory horizon scan covering pending FAA rulemaking, EASA certification specification updates, ICAO developments, evolving uncrewed-aircraft operating rules, and export control changes — the output of which should be a written view of which regulatory changes create or destroy demand in your category over the next 24 months.

One structural note on the build: certification should start earlier in this sequence than instinct suggests, ideally before the first OEM AE is hired. The certification program is the long pole. Starting it at $3M ARR rather than $8M ARR is the single highest-leverage sequencing decision available to an aerospace-tech company, because it converts certification from a deal blocker into a differentiator at exactly the moment the OEM motion begins.

Related questions

How long does aerospace software certification actually take?

Software certification under DO-178C typically runs 12 to 36 months depending on design assurance level, with DAL A the longest and most expensive. Cost commonly reaches seven figures. Starting before you have a customer requiring it is the difference between a differentiator and a deal blocker.

Should an aerospace-tech startup sell to airlines or OEMs first?

Airlines and MRO providers first, almost always. Their cycles run 12 to 24 months versus 24 to 48 at OEMs, decisions are operational rather than program-gated, and the resulting references are what make you credible when an OEM program window opens.

What pricing unit should aerospace software use?

Per-aircraft or per-tail for connected-aircraft and maintenance software, per-engine or per-flight-hour for engine health, per-program for OEM-embedded custom work, per-event for AOG and maintenance tooling. Per-user pricing signals industry unfamiliarity and caps revenue below fleet growth.

Why is CAC payback so long in aerospace?

Multi-year cycles with high-cost pursuit teams make 48-to-72-month payback normal at the OEM tier. It is acceptable only because the resulting contracts often run 10 to 25 years against 20-to-30-year fleet lifecycles, so lifetime value scales accordingly.

When does standards-body participation pay off?

Typically 18 to 36 months after you start. The return is influence over requirement language before it reaches procurement documents, plus name recognition with the engineers writing specifications. It functions as a demand channel with headcount attached, not as a marketing expense.

FAQ

What makes aerospace GTM different from ordinary enterprise software GTM?

Two gates that do not exist elsewhere: an aircraft program window that opens once every several years and closes at critical design review, and an airworthiness certification process that adds 18 to 36 months and seven-figure cost to any safety-critical deployment. Everything downstream — cycle length, forecasting method, hiring order, pricing unit — follows from those two constraints rather than from ordinary buying-committee dynamics.

How should an aerospace-tech company forecast revenue?

By program gate rather than by quarterly close probability. Map each opportunity to where its aircraft program sits — concept, preliminary design review, critical design review, first flight, entry into service — and to its certification status. A conventional weighted-pipeline forecast will be systematically wrong because the timing driver is an external engineering schedule, not a buyer's fiscal quarter.

What are realistic deal sizes across the three segments?

Airframe and engine OEM engagements run roughly $1M–$25M ACV, with the top of the band reserved for platform-wide program work. Airlines and cargo carriers run $300K–$5M, driven by tail count rather than headcount. Tier-1 suppliers and MRO providers run $200K–$2M. Total contract value is often far larger given 10-to-25-year long-term services agreements.

When should a Head of Certification be hired?

Between $10M and $20M ARR for the formal role, but the certification program itself should start much earlier — ideally around $3M ARR, before the first OEM account executive is hired. Contract the expertise if you cannot yet afford the hire. Certification is the long pole in the entire build, and starting late is the most common self-inflicted wound in the category.

What is a healthy net revenue retention benchmark here?

110% to 120% for platforms that expand across aircraft types, fleets, and regions. Expansion comes from additional programs at an OEM, additional fleet types at an airline, and additional stations or geographies at an MRO. Sitting below 100% usually means the product was sold into a single program with no natural expansion surface — an architecture problem more than a customer-success problem.

How much should a company budget for the major air shows?

A meaningful presence at Paris or Farnborough — space, stand build, staffing, travel, and customer hospitality — runs well into six figures, with the largest exhibitors spending into seven. The MRO series and AIAA SciTech deliver strong return at a fraction of that, which is why early-stage companies should anchor on those and build to the flagship shows once there is a reference story worth telling.

Sources

• https://aviationweek.com/
• https://www.iata.org/en/publications/store/world-air-transport-statistics/
• https://www.faa.gov/aircraft/air_cert
• https://www.easa.europa.eu/en/document-library/certification-specifications
• https://www.icao.int/publications/Pages/default.aspx
• https://www.rtca.org/standards/
• https://www.sae.org/standards/
• https://www.flightglobal.com/
• https://www.mckinsey.com/industries/aerospace-and-defense/our-insights
• https://www.aia-aerospace.org/

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