The space industry has entered a new era.
For much of the American public, the story of space began as a patriotic mission: a country coming together to accomplish something previously unimaginable. However, after Apollo, space gradually became more distant from everyday life. Rather than a shared public endeavor, it retreated into the specialized world of government agencies, research institutions, defense programs, and aerospace contractors.
Then came SpaceX.
Founded in 2002, SpaceX was, by any reasonable measure, a long shot. This commercial space startup was attempting to do what had historically been done only by governments and a very small number of established aerospace giants. A little more than two decades later, it completed the largest initial public offering in history.
In this short period of time, commercial space went from a dream, to an experiment, to serious business.
SpaceX has come to define the commercial space industry, but one company does not encompass nor represent the entire sector. The rest of the industry cannot ride on SpaceX’s coattails and assume customers, investors, regulators, and the public understand what we are building or why it matters.
Engineers, customers, regulators, investors, and the public all evaluate space technology through different lenses. Each group asks different questions, uses different language, and defines success differently. When companies fail to communicate effectively with these audiences, technically impressive ideas get lost in translation: misunderstood, overpromised, or developed without a clear path to adoption.
The space industry needs people and organizations capable of translating complex technology in an understandable way for a range of stakeholders, including the general public.
Different Strokes for Different Folks
Engineers focus on technical characteristics: mass, design, trusses, bolts, propulsion systems, orbit, power, capacity, reliability, and performance (to name a few!).
Those details are critical, but they are not how a customer thinks about a problem they face.
The customer cares about what service they are getting, when they are getting it, and what it will cost. Try explaining orbital dynamics to a prospective customer and, in all likelihood, their thoughts will wonder. Instead, they want to understand what it will do for their business.
Investors apply another lens. They see the largest IPO in history and headlines forecasting enormous growth in the space economy. They want to understand the business and its potential profits.
How much will it cost to build? Who will pay for it? What revenue can it generate? Is the technology truly disruptive, and if so, to which market? What are the financial and execution risks?
Regulators focus on safety, environmental effects, international obligations, and the consequences of operating at scale.
The public may begin with even more fundamental questions: What is this? Why is it necessary? Who controls it? How could it harm me? How can it benefit me?
Each perspective and list of questions is valid. As an industry, it is important that we can speak to each constituency and answer them in a clear and thoughtful way.
Technical Coolness Does Not Equal Business
Space companies often begin with an extraordinary capability: a new sensor, communications architecture, or deployable structure. The temptation is to assume the value of that capability will be self-evident. It rarely is.
Even SpaceX did not begin with an obvious, immediately profitable commercial market. NASA’s Commercial Orbital Transportation Services program provided milestone-based payments to help SpaceX develop and demonstrate transportation capabilities, followed by contracts for cargo services. The U.S. government supported by acting as an early customer, development partner, and proving ground.
This is not unique to SpaceX. Government investment has enabled technologies and infrastructure that commercial markets could not initially support. But a government-funded technical program is not automatically a scalable business.
A technology becomes a product only when its capabilities and limitations are translated into a service that someone can evaluate and use. That requires answering practical questions that may feel less exciting than the original engineering achievement.
How frequently can the service be delivered? Under what conditions does it work? How reliable is it? How does it integrate into the customer’s existing operations? What does it replace, improve, or make possible? What does it cost compared with terrestrial alternatives?
This is particularly important in space because a compelling demonstration can look very different from a dependable commercial service. There may be years (sometimes decades!) between an initial demonstration and true commercial viability.
A demo proves that something can happen once. But for a business to work, it must prove that it can happen repeatedly, reliably, and economically. Clear, measurable value is what turns interest into a durable market.
Space is for Everyone
Translation is not solely the responsibility of space companies. As space technology becomes more relevant to terrestrial industries, leaders outside aerospace will need a basic level of space literacy.
They do not need to become orbital-mechanics experts. But they should understand enough to ask informed questions.
What does “global coverage” actually mean? How frequently will a satellite pass over a particular location? What is the difference between a prototype, an operational system, and a scaled constellation? Which limitations are imposed by physics, which are engineering challenges, and which may change as more infrastructure is deployed?
Without that literacy, decision-makers may either underestimate space-based capabilities or accept unrealistic claims. Both outcomes slow responsible adoption.
When I moved from the energy industry into the space industry, I had a steep learning curve. It felt like the very smart people on both sides simply spoke different languages. The space sector sometimes assumes everyone appreciates the significance of a technical milestone. Customers may assume that a successful demonstration means a complete service will be available tomorrow.
Space is painfully slow. A milestone that is genuinely extraordinary from an engineering perspective may still be years away from becoming commercially useful. At the same time, a customer problem that sounds straightforward may be extremely difficult to solve within the constraints of physics, spacecraft design, regulation, and launch schedules.
Building a Shared Language
The next phase of the space economy will not just be defined by who can build the most advanced spacecraft. The people who can make those capabilities understandable, useful, and valuable will be the most successful.
That means explaining technology without sensationalizing it. It means clearly separating present capabilities from future ambitions. It means being honest about the distance between a demonstration and a dependable service.
For that transition to succeed, the space industry must learn how to communicate outward and how to translate between worlds.
