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Elodin
Summary
Aerospace simulation pipelines break when the physics toolkit can't keep up with the hardware — you're left hand-rolling JAX integrations or waiting on slow CPU-bound loops while your flight test window closes.
Elodin is a simulation and testing platform from Elodin Systems that connects flight software to GPU-accelerated physics, so the same codebase runs against a virtual airframe and then against real hardware without rewiring the test harness. The core engine is open-source, built on Rust and Python with XLA and JAX under the hood, and runs locally — which matters when your IP can't leave the building. Swarm simulation scales to tens of thousands of actors on a single machine, per the vendor. Cloud-based Monte Carlo testing is a paid-only feature, so teams doing mission profile sweeps at scale will hit a pricing conversation before they hit a technical wall. The Aleph flight computer is a separate hardware product; teams evaluating only the simulation layer should scope the two independently.
Bottom line: Pick this for GPU-accelerated SITL/HITL iteration on drone or satellite control systems where local compute is available — but if your Monte Carlo campaign needs to run overnight at scale, the cloud tier requires a commercial agreement before you can benchmark.
Hosted & API Pricing
The model is free to self-host. These are the creator's hosted/API options.Cloud Monte Carlo Simulations
Cloud-based GPU-accelerated Monte Carlo testing infrastructure
- Hundreds of thousands of parallel simulations
- Real-time result monitoring
- GPU compute scaling
Pricing may have changed since last verified. Check the official site for current plans.
Pricing Plans
Usage-Based- Free Tier
- Self-hosted simulation is free and unlimited; cloud services and hardware are separately priced.
Open-Source Simulation
Self-hosted simulation engine and flight software via GitHub
- GPU-accelerated physics simulation in Rust/Python
- Flight software stack
- Community support
Cloud Simulation
Cloud-hosted Monte Carlo testing and simulation execution
- Massive-scale parallel simulations
- GPU cloud compute
- Real-time monitoring
Aleph Flight Computer
Hardware: Nvidia Orin NX SOM + STM32H747-based flight controller
- Open-source flight computer
- Modular architecture
- AI-capable edge computing
View full pricing on elodin.systems →
Pricing may have changed since last verified. Check the official site for current plans.
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Pros
Sign in to edit- GPU-accelerated physics via XLA and JAX runs locally, so simulation cycles stay in the development loop rather than queuing on a CI server or blocking on cloud access.
- A single API covers both SITL and HITL testing against the same flight software, so teams avoid the integration tax of maintaining two separate test harnesses as they move from simulation to hardware.
- The core engine is open-source and self-hostable, which means programs with data residency or IP restrictions can run full simulation campaigns without routing telemetry through a third-party cloud.
- Fleet simulation scales to tens of thousands of actors per the vendor, so swarm coordination behavior gets validated in simulation rather than discovered during a field test with actual vehicles.
- Satellite ADCS is included out of the box, so teams building 1U CubeSats or fault-tolerant attitude control systems don't need to integrate a separate ADCS library before the first simulation runs.
Cons
Sign in to edit- Monte Carlo simulation at cloud scale — the scenario where you need hundreds of thousands of parallel runs overnight — is a paid-only feature requiring a commercial agreement; teams that need to benchmark cost before committing to that workflow hit a wall before they can run the experiment.
- The full HITL pipeline is designed around the Aleph flight computer; teams with existing flight hardware on ArduPilot, PX4, or proprietary stacks will need to validate that the flight software layer integrates cleanly, and the docs do not describe that path in detail — at some point those teams evaluate PX4's SITL toolchain or a simulator with broader hardware abstraction instead.
- The physics API requires Rust or Python with JAX familiarity; teams whose GNC engineers work primarily in MATLAB/Simulink face a toolchain migration before they can run a first simulation, and teams under schedule pressure switch to a Simulink-native simulation environment rather than absorb that ramp.
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About
- Platforms
- Linux, macOS, Windows (cloud and local)
- API Available
- Yes
- Self-Hosted
- Yes
- Last Updated
- 2026-06-09T09:59:18.964Z
Best For
Who it's for
- Aerospace engineers developing autonomous control systems
- Research institutions prototyping new flight platforms
- Companies needing rapid iteration on satellite and drone systems
- Teams requiring GPU-accelerated physics simulations
What it does well
- Rapid design and testing of drone flight control systems
- Satellite attitude determination and control (ADCS) development
- Monte Carlo simulation for mission profile evaluation
- Hardware-in-the-loop (HITL) and software-in-the-loop (SITL) testing
- Multi-agent swarm behavior simulation and coordination
Integrations
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Recommended skills for this tool
Auto-curated by the AIDiveForge recommendation matrix. These skills are predicted to enhance this tool based on category, capability, and domain signals.
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Frequently Asked Questions
- Is Elodin free?
- Elodin is a paid tool. No permanent free tier is offered.
- Is Elodin open source?
- Yes. Elodin is open source.
- Does Elodin have an API?
- Yes. Elodin exposes a developer API. See the official documentation at https://elodin.systems for details.
- Can I self-host Elodin?
- Yes. Elodin supports self-hosting on your own infrastructure.
- When was Elodin released?
- Elodin was first released in 2023.
- What platforms does Elodin support?
- Elodin is available on: Linux, macOS, Windows (cloud and local).
Hours Saved & ROI Stories Community
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Curated lists that include this category
Elodin provides a unified platform for designing, simulating, and deploying control systems for drones, satellites, and aerospace robotics. The core workflow moves from algorithm design — written in Python or Rust against an expressive physics API — through software-in-the-loop testing, hardware-in-the-loop testing against real flight hardware, and into deployment on the Aleph flight computer. The simulation engine runs on GPU via XLA and JAX, so iteration cycles that would stall on CPU stay fast enough to be part of a daily development loop.
The differentiating capability is the combination of local GPU-accelerated simulation with the ability to simulate fleets — the vendor states tens of thousands of autonomous actors in real-time — covering swarm coordination scenarios that most flight simulation tools treat as edge cases. Monte Carlo simulation is built into the platform; the docs describe running hundreds of thousands of simultaneous test runs, though at that scale the workflow moves from the local engine to the cloud offering.
Elodin fits teams that need to close the loop between algorithm development and hardware testing without maintaining separate simulation and integration environments. The open-source core and self-hosted option make it viable for defense and government programs with strict data residency requirements. The ceiling appears when Monte Carlo campaigns need to run at cloud scale — that path requires a commercial agreement — and teams integrating with non-Aleph hardware need to validate that the flight software layer maps cleanly to their stack.
The Aleph flight computer runs NVIDIA Jetson Orin, targets COTS modularity, and ships with satellite ADCS and live telemetry out of the box. The flight software is available on GitHub. Teams evaluating Elodin purely as a simulation toolkit can use the open-source engine without the hardware product, but teams wanting the full HITL pipeline will need to assess Aleph compatibility with their airframe early in the program.
