Plasma Steam Reactor Documentation
Technical documentation for the HydrogenOrg Plasma Steam Reactor Framework. This section describes the conceptual reactor architecture, simulation logic, quench separation model, assumptions, limitations and future research direction.
Framework Status
Conceptual research architecture based on theoretical modeling and comparative simulation. Not a validated reactor design.
Model Version
Current simulator generation: V8 Quench Separation, including plasma, steam loop, heat recovery and gas separation variables.
Research Scope
Explore how temperature, plasma coupling, steam recirculation, quench speed and separation efficiency influence net kWh/kg H₂.
1. Reactor Architecture
The reactor architecture is structured as a high-temperature plasma-steam system with thermal recovery and rapid gas separation. The goal is not only to dissociate water vapor, but also to reduce recombination losses and recover part of the thermal energy contained in the exhaust stream.
Steam Injection
Plasma Core
DC Ion Field
Rapid Quench
H₂ Separation
Heat Recovery
Steam Recirculation
2. Plasma-Steam Dissociation
The plasma core concept uses high-temperature steam, argon-assisted plasma coupling and tungsten electrodes to create a thermal-plasma dissociation environment. In the current research model, plasma-zone temperature is treated as one of the strongest drivers of theoretical dissociation performance.
H₂O vapor → reactive plasma species → H₂-rich stream + oxygen-containing stream
3. Gas Separation & Quench
The V8 model introduces the missing separation layer. In plasma-steam systems, the critical challenge is not only dissociation, but preventing rapid recombination. The gas stream must be cooled and separated quickly enough to preserve usable H₂.
Rapid Quench
Fast cooling reduces the probability of H₂ and oxygen species recombining into water.
Ion Separation Field
A DC electric field is modeled as a directional separation aid for charged species.
Membrane / Vortex
Membrane efficiency and swirl separation are used as conceptual H₂/O₂ separation factors.
4. V8 Simulation Variables
Plasma Variables
- Plasma type
- Plasma-zone temperature
- Discharge coupling efficiency
- Surface plasma factor
- Gas gap type
Steam Loop Variables
- Steam inlet temperature
- Hot outlet gas temperature
- Steam loop heat exchanger efficiency
- Steam recirculation ratio
- Loop pump/blower penalty
Quench & Separation Variables
- Rapid quench time
- Gas residence time
- Ion separation voltage
- H₂ extraction efficiency
- O₂ rejection efficiency
- Membrane efficiency
- Recombination loss
5. Simulation Assumptions
- The model is a comparative research simulator, not a validated reactor calculation.
- Theoretical energy reference is simplified and used only as a baseline.
- Plasma, catalyst, pressure and separation factors are placeholders requiring calibration.
- Thermal recovery values are conceptual and must be validated experimentally.
- Gas purity, recombination loss and H₂ capture must be verified with measured gas composition data.
- No construction, safety or industrial performance claim is implied.
6. Research Roadmap
V9 Simulator
Live graphs, comparative scenarios and improved sensitivity analysis.
Scenario Database
Save, compare and share simulation runs across the research community.
Experimental Calibration
Integrate measured gas composition, temperature, power and yield data.