Think Orbital or Fall Behind: Why CTOs in Manufacturing and Mobility Must Position for the Space Economy in 2026

Back in 2005, while I was grinding through my mechanical engineering degree, one professor stopped the class cold and said: “You need to start thinking of your future company as a global company. Because that’s the only kind that will survive the next two decades.”

At the time it felt abstract. The internet was just ramping up for many of us. Social media was brand new. Cloud computing was a research term. Most businesses operated locally or nationally. Global trade happened, but it wasn’t the default.

He was right, of course. Within ten years the world shrank dramatically. Companies that embraced global thinking early captured disproportionate value. Those that waited got disrupted or acquired.

I feel a similar inflection point today, only this time the frontier isn’t horizontal across the planet. It’s vertical.

The space economy is no longer science fiction or government monopoly. It is a commercial ecosystem expanding at a pace that will dwarf the globalization wave most of us lived through. And for CTOs in manufacturing, automotive, and mobility, ignoring it in 2026 is the equivalent of ignoring the internet in 2005.

The numbers are unambiguous. The global space economy was valued at approximately $630 billion in 2025 and is on track to exceed $1 trillion well before 2035, with commercial players now driving over 80% of activity. Launch costs have fallen from $20,000+ per kg to low Earth orbit a decade ago to under $200 per kg with fully reusable systems in routine operation today. SpaceX alone conducted over 130 orbital missions in 2025, more launches in one year than entire nations managed in previous decades.

This is not speculative. It is happening now.

Here are the three practical layers where terrestrial companies can and should extract value today.

Layer 1: Connectivity – Ubiquitous Low-Latency Networks

Starlink and competing constellations (OneWeb, Amazon Kuiper, China’s Guowang) have deployed over 12,000 satellites combined by early 2026, with tens of thousands more approved.

For manufacturing and mobility leaders this means:

• Reliable high-bandwidth connectivity in ocean dead zones, Arctic test routes, remote mines, offshore wind farms, or rural locations without broadband or fiber access.
• Sub-50 ms latency for real-time remote control of robotic systems or fleet telemetry critical when your autonomous mining trucks or offshore supply vessels lose terrestrial cellular.
• Direct-to-device satellite links now in commercial rollout (e.g., AST SpaceMobile, early Lynk Global services) that will let standard smartphones connect anywhere on Earth.

If you operate assets in harsh or remote environments, the question is no longer “Will satellite backhaul be viable?” It is “Which provider gives us the SLA and pricing we need in 2026–2028?”.

Also consider this: With price and speed competing with earth based cellular, maybe your next factory doesn’t have to exist near large cities. What if you locate a new factory in a location with inexpensive land where you could custom build the perfect infrastructure and incorporate satellite connectivity and solar power? It’s not as crazy as it might sound, and the gains could be substantial.

Layer 2: Earth Observation and Data Services

Hyperspectral and SAR (synthetic aperture radar) imaging from low Earth orbit is now available commercially at resolutions and revisit rates that were classified military capabilities five years ago.

Practical applications are already in use by sophisticated operators:

• Daily monitoring of global supply chains: track raw-material stockpiles at supplier ports, detect weather disruptions early, verify sustainability claims.
• Predictive maintenance at scale: combine satellite thermal imaging with on-asset sensors to spot overheating transformers or conveyor anomalies across geographically dispersed plants.
• Precision agriculture and mining: centimeter-level change detection for tailings dams, soil moisture, or crop health directly relevant if you supply equipment into those sectors.

Companies like Planet Labs, Maxar, and ICEYE are delivering this data via API today. The marginal cost for an additional enterprise subscription is measured in tens or hundreds of thousands, trivial compared to the risk of a single supply-chain disruption.

Layer 3: Off-World Manufacturing and Resource Utilization

This is the layer that still sounds futuristic until you look at what is already flying.

Zero-gravity materials processing is commercial reality:

• Merck, Airbus, and Redwire have conducted multiple pharmaceutical crystallization experiments on the ISS showing dramatically higher purity and yield for certain drug compounds.
• Made In Space (Redwire) and Airbus have 3D-printed metal parts in orbit using recycled satellite material.
• Optical fibers produced in microgravity (ZBLAN) show theoretical 100× lower signal loss. Flawless Photonics is scaling production now.

Beyond LEO, lunar infrastructure is moving from PowerPoint to hardware:

• NASA’s CLPS program has already landed multiple commercial payloads on the Moon in 2024–2025.
• Intuitive Machines, Astrobotic, and Firefly have firm contracts through 2028.
• Axiom Space has launched its first module to the ISS in 2025; the standalone Axiom Station is targeted for late-decade assembly. Vast Space and Blue Origin’s Orbital Reef follow closely.

Helium-3 remains speculative for fusion, but water ice at the lunar poles is confirmed and will be extracted commercially within this decade for propellant and life support — creating the first off-Earth supply chain.

Your product portfolio almost certainly has an application here. Lightweight composites, thermal management systems, sensors, robotics, power electronics, and more. All are needed in greater quantities as orbital and lunar infrastructure scales.

How Terrestrial Companies Are Interfacing Today

You do not need a billion-dollar space division to start.

Real examples:

• Lamborghini and McLaren already fly carbon-fiber samples on suborbital and orbital missions to test microgravity curing.
• John Deere has experimented with satellite crop imaging integrated into its precision-ag platform.
• Several Tier-1 automotive suppliers are in discussions with Axiom and Vast for payload slots on private stations.

Entry points available right now:

1. NASA’s ISS National Lab payload slots — commercial rates start under $1M for simple experiments.
2. Suborbital providers (Blue Origin New Shepard, Virgin Galactic) for quick zero-g tests at $200k–$500k per flight.
3. Commercial lunar lander payload programs (CLPS) — slots as low as $100k–$500k for small mass/volume.
4. Direct partnership with SpaceX for rideshare on Starlink deployers or Dragon cargo missions.

The Risk Math Is Clear

Waiting until lunar bases are “real” is like waiting until 2010 to build a global supply chain. By then the standards, partnerships, and talent pools will already be claimed.

Acting early even with 1–3% of annual R&D budget positions you to:

• Influence emerging standards (radiation hardening, thermal cycles, vacuum compatibility).
• Attract next-generation engineering talent who want to work on orbital applications.
• Create optionality: a sensor qualified for lunar night survival is also the toughest sensor on Earth.

Your Immediate 90-Day Action Plan

1. Allocate budget: 1–3% of 2026 R&D (most firms I advise start with $250k–$1M).
2. Assign ownership: one senior engineer or director as “Space Technology Lead.”
3. Make three calls:

a)      NASA ISS National Lab or Axiom commercial team: Ask for current payload manifest and pricing.

b)     Your top three product-line leaders: Task them with identifying one product that could benefit from microgravity or extreme environment testing.

c)      A satellite imagery provider (Planet, Maxar, or ICEYE): Request a pilot subscription for one operating region.

4. Run a tabletop exercise: map how orbital connectivity or imaging could de-risk your toughest supply chain node.

The next global economy is being built above our heads, and the window to claim meaningful share is measured in months, not decades.

Now is the time to get out of our comfort zones. Think big and prepare for what’s to come. It will be here before we know it.