Controlled testing
Experiments are designed to distinguish electrostatic effects from thermal, mechanical, airflow, and measurement artifacts.
A Different Approach to Space Propulsion
Exodus is developing propulsion technology intended to create measurable force through controlled electrostatic interactions rather than expelling onboard propellant.
The propulsion question
What if a propulsion system behaved more like a light bulb than a fire extinguisher?
Traditional spacecraft propulsion relies on a chemical reaction that accelerates mass through a nozzle. Once the stored propellant is exhausted, maneuvering capability is limited.
Exodus explores a different platform: using interactions between electrostatic fields to produce momentum for spacecraft motion while drawing energy from electricity.
The Exodus Effect
Built around repeatable laboratory testing
The company describes the Exodus Effect as a repeatable and quantifiable process supported by controlled experiments, measured force data, published technical discussion, and third-party review.
Development work includes T-Blade thrusters, rotation demonstrations, precision scales, and vacuum-chamber instrumentation used to isolate and evaluate potential force signatures.
Research principles
Focused on evidence, iteration, and independent scrutiny
The program is organized around practical engineering questions rather than broad claims.
Repeatability
Hardware configurations and operating procedures are documented so results can be compared across test cycles.
Validation
Independent review and third-party testing remain central to evaluating whether observed forces persist under rigorous conditions.
Collaboration
Proud Member of APEC
Exodus works with APEC to expand technical dialogue, public research visibility, and engagement with engineers and investigators studying advanced propulsion.
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