Every Mission Ends
Somewhere. We Compute Where.
Nuvvio and Pelagos model what happens after launch and after orbit — reentry, fragmentation, and debris recovery — so the space industry can grow without leaving a mess behind.
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Spaceflight Was Engineered For Liftoff. Not For What Comes Down.
Launch vehicles, satellites, and constellations are certified to extraordinary precision — until the moment their mission ends. What happens after is still handled with rough estimates and wide margins of error, at a time when the industry is launching and deorbiting more hardware than ever before.
Reentry, Modeled Before It Happens.
End-of-life de-orbit requires mathematically rigorous evidence to satisfy international debris mitigation standards. Nuvvio resolves the coupled equations of motion and heat transfer that govern how a spacecraft actually breaks apart — not just where it might land.
Treating each vehicle as a hierarchical assembly, Nuvvio applies lumped-mass thermal network models to predict the exact altitude of structural yield, melting points, and the aerodynamic transition of every surviving sub-component.
- AEROTHERMODYNAMIC HEATING Real-time stagnation point heat flux and wall temperature across varying ballistic coefficients.
- EPHEMERIS INGESTION Direct API integration for TLE data and high-fidelity covariance matrices.
Point Nemo Is A Baseline, Not An Answer.
The South Pacific Ocean Uninhabited Area — Point Nemo — is the mandated target for controlled spacecraft disposal. Reaching those coordinates is the easy part. Containing the resulting debris shower is the actual engineering challenge.
On breakup, a spacecraft fragments into thousands of pieces, each with its own aerodynamic signature. Nuvvio simulates the descent of every one, computing a probability density function that keeps the maximum dispersion ellipse strictly inside uninhabited waters — with Casualty Expectancy held below the 1 × 10-4 threshold under all atmospheric conditions.
Marine Impact & Oceanic Ecosystem Protection.
Precise footprint containment keeps hypergolic residues and heavy structural metals out of sensitive marine ecosystems and shipping lanes. Isolation minimizes human risk; Nuvvio's ablation modeling minimizes the surviving mass that ever reaches the water.
Monte Carlo Debris Dispersion.
Nuvvio, Explained.
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What Falls On The Way Up Matters Too.
Every launch sheds hardware long before the payload reaches orbit — fairings, adapters, and secondary structures released mid-ascent, then left to fall wherever wind and physics take them.
Pelagos predicts exactly where. It models trajectory, wind influence, atmospheric drag, and marine currents to define a recoverable footprint before debris ever reaches the water — turning cleanup from a search into a plan.
- TRAJECTORY RECONSTRUCTION Per-component descent modeling for fairings, adapters, and detached structures.
- MARINE DRIFT PROJECTION Post-splashdown current modeling to define a live recovery search radius.
From Launch Corridor To Recovery Zone.
Pelagos was first built for the launch corridors near Starbase, correlating real ascent telemetry with drop-zone predictions. It's designed to work the same way for every launch provider, on any coastline.
The output isn't a report — it's a bounded, prioritized search area a recovery vessel can act on before debris disperses or sinks.
Built In Stages, Flying Today.
Nuvvio Core, Operational
The reentry and fragmentation engine is live, integrated by Varda Space for the decommissioning of returning capsule hardware.
SPOA Certification Layer
Casualty Expectancy modeling extends into full Monte Carlo dispersion mapping for regulatory-grade compliance evidence.
Pelagos, Final Development
The launch debris recovery engine enters final validation across the launch corridors near Starbase.
Multi-Provider Rollout
Pelagos opens beyond a single launch site — built to track fairings, adapters, and stages for any provider, anywhere.
One Lifecycle Layer
Nuvvio and Pelagos converge into a single computational layer covering everything from liftoff to ocean floor.
Manufacturing In Orbit Needs A Way Down.
Varda Space manufactures pharmaceuticals and advanced materials in microgravity, then returns them to Earth inside recoverable reentry capsules — a mission that depends entirely on getting that return right, every time.
Orbital manufacturing can only scale if reentry is boring: predictable, certifiable, and safe by default. That's the same standard Nuvvio was built to hold. Nuvvio is currently used by Varda Space for atmospheric reentry analysis of its returning hardware.
The Science Underneath.
Casualty Expectancy
Computing Ec margins under NASA-STD-8719.14, extended to multi-body fragmentation events.
Rarefied Hypersonic Flow
Modeling the transitional flow regimes that dominate high-altitude breakup and heating.
Debris Density Mapping
Long-term tracking of surviving fragment distribution across the SPOA and launch corridors.
Debris Management As Infrastructure, Not Afterthought.
As launch cadence keeps climbing, the question isn't whether hardware falls back to Earth — it's whether anyone can say exactly where. Nuvvio and Pelagos are built to answer that for every mission, not just the ones that go wrong.
The goal is a default layer underneath the entire industry: certifiable disposal, recoverable debris, and an ocean that stays a footnote instead of a headline.
Compute The Footprint.
Access the scientific engines behind Nuvvio and Pelagos — thermal ablation, structural fragmentation, and debris footprint analysis, available through one API.
Request Engineering Access.
For launch providers, satellite operators, and research teams working on end-of-life or debris recovery planning.
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