The mission copilot
for
Earth-observation operatorstelecom & comms operatorssmall & mid-size constellationsflight dynamics teams

Operating a constellation is a thousand decisions a day.
Apsia shows you the ones that matter — ranked, explained, and weighed against the rest of your mission.

8
decision axes, weighed together
~95%
of GEO fuel goes to inclination control
<1 ms
to re-plan after a failure
75%
coverage recovered after a 10% fleet loss

A wall of alerts in.
One decision you can approve out.

Every option weighed by its real cost across the whole mission, ranked, and handed to you as a plan — nothing fires on its own.

Weighed by what’s at stake

Every option carries its real cost across the mission — fuel, imaging minutes, coverage, years of life — ranked into one queue by what’s at risk, not collision odds alone.

Δv budget, watched

Fuel tracked per satellite. When a plan would overspend or dip into the deorbit reserve, Apsia flags it before you approve — not after.

You have the last word

Every recommendation is tagged with how far it should escalate — a routine nudge or a board-level call — and waits for you to approve it. Apsia advises; it never acts on its own.

Collision avoidance Revenue-at-risk Ground-pass scheduling Orbital compute Constellation self-healing Anomaly detection Onboard power budget
Δv & fuel budgeting Station-keeping Space-weather windows Radiation-aware · SAA Kessler cascade risk Orbit determination Maneuver deconfliction
Deorbit & disposal Maneuver planning Compliance & ESG Formation-keeping Conjunction screening Thermal-aware scheduling Energy-market dispatch

One engine.
Every mission in orbit.

Different missions, one shared problem: every maneuver spends something somewhere else. Apsia reasons across all of it — satellites, orbital datacenters, and the power that moves between them.

Earth-observation operators

Conjunction screening that scales, fuel and disposal on one budget, and what every dodge costs in revenue — imaging minutes, scenes — priced before you burn.

Telecom & comms operators

Every avoidance priced in lost service minutes, not just Δv — a GEO cell has no second satellite to fill the gap. Disposal in the same call, and the exact year holding inclination stops paying: let it drift and fuel turns into years of life.

Orbital datacenters

Compute scheduled and throttled against a thermal-power envelope that moves with the orbit — the binding constraint, handled by the same platform.

The same engine

Orbital energy

The same engine already runs the power side of a mission: how much you can deliver against the orbit's eclipse, the battery to size and when it pays for itself, and how power trades against the thermal and collision budgets it shares. When orbital energy is real, the economics are already a decision — not a guess.

// Mission Control

Live space weather,
digital-twin constellation.

The Kp index and storm risk are live from NOAA SWPC. The constellation is a digital twin reacting to that data in real time — the same intelligence that runs on your fleet once you connect it.

Mission Control — Digital Twin
Kp Index
2.3
Storm Probability
8%
Solar Cycle Phase
ASCENDING
Active Elements
487/500
Optimized
96.2%
Fuel Remaining
72.4%
Energy Output
4.21 GW
Beam Attenuation
-0.8 dB
Relay Routes Active
24

Built on real data and real physics.

Every number here comes from Apsia itself — live public orbital, space-weather and energy data, standard orbit propagation. No marketing baselines.

CROSS-IMPACT
8
decision axes, weighed together
Every maneuver scored at once on fuel (Δv), collision risk, space weather, coverage, asset lifetime, revenue at risk, onboard power and thermal load — one ranked decision instead of eight disconnected tools.
COLLISION AVOIDANCE
5 km
safe corridor every avoidance burn restores
Every close approach is screened and ranked by real collision risk; Apsia sizes the smallest burn that reopens a 5 km miss-distance corridor — including the cascade geometries a pair-by-pair check misses.
RESILIENCE
~75%
coverage recovered after a 10% fleet loss
When satellites fail, Apsia plans the survivor maneuvers that refill the coverage gaps — about 75% of coverage recovered across 120 randomized failure trials, every move validated against the propagator before it is proposed.
LIVE DATA
6
real feeds fused into every decision
Space weather, conjunction data, fragmentation and reentry, solar events and energy prices — real public sources behind every call, not static assumptions.
SPEED
<1 ms
to re-plan after a failure
A survivor reconfiguration plan in under a millisecond, and a full constellation screened and ranked in seconds — fast enough to keep a human in the loop without slowing operations down.
DISPOSAL
100%
of assets screened for compliant end-of-life
Every satellite checked for a compliant deorbit or graveyard re-orbit against IADC/FCC rules, with the Δv reserved before it is needed.
One platform, many jobs
Decide Stay safe Orbital datacenters Comply & integrate
See all capabilities →
// Get in touch

Bring Apsia to your operations.

We work with constellation operators, space agencies and orbital infrastructure teams. Tell us about your mission and we’ll show you what Apsia surfaces on your own data.

Contact us Try Apsia