Electricity and Space: The Infrastructure Convergence Leaders Are Still Managing Separately

What did you do when the Verizon (or AT&T in 2025) network went down earlier this year?

For most, it was an inconvenience. For some, it became a safety issue with no navigation, no payments, no ability to call for help. For utilities, it was something else entirely: degraded communication with field crews, reduced visibility into grid operations, and a forced shift to backup systems rarely tested under real conditions.

It was a short outage. Hours, not days.  But it exposed something more important.

We no longer experience infrastructure as separate systems. We experience it as a single, always-on environment, and we assume it will work.

That assumption is increasingly fragile.

A Dependency Hiding in Plain Sight

For decades, electricity and space were treated as separate domains.

Utilities focused on reliability, regulation, and physical infrastructure. Space belonged to satellites, science, and launch economics.

That separation no longer exists.  Electricity and space are now interdependent layers of the same operating environment. Yet planning, investment, and resilience efforts are still organized as if they fail independently.

This is the gap.

Most exercises test disruption within sectors. Few test what happens when disruption begins in one domain and cascades through another.

The question leaders need to answer is straightforward: Are you planning for isolated failures or system failure?

The Fragile Backbone: Time

Here is the uncomfortable truth: The grid runs on space-based time.

Precision timing underpins fault detection, system protection, and grid balancing. It allows operators to act in milliseconds. Without it, the system doesn’t just slow—it loses coherence.

Much of that timing comes from GPS.  GPS is often framed as a navigation tool. It is not. It is foundational infrastructure synchronizing telecommunications, finance, transportation, and energy.

And like most foundational systems, it is assumed to be always on.  That assumption is no longer safe.

GPS signals can be degraded by solar activity, disrupted by interference, or intentionally jammed. Many backup timing systems are not truly independent—they rely on GPS somewhere in the chain.

So the real risk isn’t failure.  It’s degradation. Systems don’t go dark. They drift.

Time slips. Data misaligns. Signals conflict. Operators are forced to make high-consequence decisions with information that appears valid, but isn’t.

Most organizations assume their redundancy will hold. Far fewer have tested it under degraded conditions.

The Signals Are Already Here

In May 2024, the most powerful geomagnetic storm in more than two decades hit Earth.

GPS accuracy degraded. Satellite services were disrupted. Grid operators and infrastructure leaders were forced to pay attention.

Then it happened again. In 2025, a series of solar storms triggered warnings across the United States and Europe. While not catastrophic, it was enough to introduce noise, stress systems, and force defensive operations.

That distinction matters. We tend to plan for failure as a discrete event when something breaks, alarms trigger, response begins.

What we are seeing instead is system stress without system failure:

• Reduced accuracy
• Slower response times
• Conflicting data

In other words, the conditions where decision-making becomes hardest.

At the same time, our ability to detect these events has improved. New monitoring capabilities mean operators may have minutes (or hours) of warning.

But better warning introduces a new burden:

the need to act before certainty.

It also exposes how the system actually functions.

There is no single “incident commander.” Response is distributed across NOAA, utilities, NERC, DHS, CISA, DOE, and DoD—each operating within its domain.

This decentralized model works. Until it doesn’t.

The signal is clear: This is no longer a scientific issue. It is an operational and national security risk.

And the risk is growing, not because events are new, but because our dependence on vulnerable infrastructure has increased faster than our ability to manage its failure.

At the same time, adversarial threats (jamming, spoofing, interference) are exploiting the same dependencies.

Two pressures, converging on the same weak point.

The Scenario That Changes the Risk

Individually, these risks are manageable.

Utilities have protocols for grid instability. Satellite operators prepare for space weather. Communications providers plan for outages.

Each system is designed for its own failure modes.

That is not the scenario that should concern leaders.

The real risk is the compound event when multiple systems degrade simultaneously and reinforce each other.

A severe solar event can:

• Degrade GPS timing
• Disrupt satellite communications
• Reduce grid visibility
• Introduce corrupted or delayed data

Now layer in adversarial interference exploiting the same moment.

This is not additive risk. It is multiplicative.

Because the systems designed to compensate for failure depend on the same underlying signals.

In this scenario, operators are not responding to a clear failure.

They are operating inside a degraded information environment:

• Signals conflict
• Data becomes unreliable
• Visibility distorts

And decisions still have to be made.

Most exercises don’t simulate this. They assume clear triggers, defined failures, and structured responses. The compound event offers none of those.

It is ambiguous, fast-moving, and cross-domain.

And it exposes a deeper issue: We are still planning for resilience within systems—not across them.

A New Constraint Is Emerging

At the same time, another shift is underway, albeit less visible, but equally consequential.

The space economy is becoming power constrained. For decades, the limiting factors for space were launch, access, and technology. Those constraints are falling away.

A new one is taking their place: Electricity.

Ground infrastructure, cloud computing, AI processing, manufacturing, and launch operations all depend on stable, scalable power.

And that demand is colliding with a grid under strain:

• Rapid data center expansion
• Electrification across sectors
• Transmission bottlenecks
• Interconnection delays

This is not a future issue. It is happening now.

The implication is clear: The limiting factor for space is no longer orbital. It is terrestrial.

And this is where the convergence tightens.

The grid depends on space for timing and visibility.

Space depends on the grid for power and growth.

This is no longer a one-way dependency. It is a feedback loop.

And under stress, feedback loops amplify failure.

The Leadership Gap

The issue is not whether these systems are connected. They are.

The issue is that leadership models, planning frameworks, and investment strategies are still organized as if they are not.

• Utilities plan for grid resilience.
• Space operators plan for orbital resilience.
• Homeland security plans for coordination—often after disruption occurs.

Each operates within its own domain. No one owns the system between them.

That is where risk accumulates. Because disruption will not arrive neatly within sector boundaries.

It will begin in one domain, propagate through another, and surface somewhere else—often where ownership is unclear and visibility is lowest.

This is not a technology problem. It is a governance problem.

We are still managing infrastructure as a collection of assets. What we are operating is a system of systems. And systems of systems behave differently. They don’t fail cleanly. They drift out of sync.

They require a different leadership approach.

A Leadership Test

The next infrastructure disruption will not respect sector boundaries. It will move across them quickly, unevenly, and with limited visibility.

And when it does, the question will not be whether we understood the risk. We do. The question will be whether we acted on it.

For Electric Utility Executives

• Do you understand your dependencies, and not just your assets?
• What operations rely on GPS timing or satellite communications?
• How does your system behave when timing degrades?

For Space Sector Leaders

• Where does grid capacity constrain your growth?
• Are you planning for power resilience as aggressively as launch capability?
• What happens to your customers if your ground infrastructure fails?

For Homeland Security Leaders

• Where are the cross-sector failure points—and who owns them?
• Are you planning for compound, cross-domain events?
• How resilient is national timing infrastructure if GPS is degraded for days?

The convergence of electricity and space is no longer emerging. It is operational.

It is shaping how systems function, and how they fail.

The systems are already connected.

The only question left is whether leadership catches up before they are tested again.