CO2 to O2 Conversion

CO2 TO O2 EXTRACTION

IN-SITU RESOURCE UTILIZATION

RESOURCE CRACKING:

Solid Oxide Electrolysis

By capturing the heavy atmospheric carbon dioxide (96.5% of Venus's air) and passing it through zirconia electrolysis cells at high temperatures, the molecular bonds can be split to isolate pure, breathable oxygen gas.

CHEMICAL REACTION BYPRODUCT

2CO2 → 2CO + O2

Carbon dioxide breaks down cleanly into breathable oxygen and toxic carbon monoxide exhaust.

FEEDSTOCK AVAILABILITY

96.5% RICH AIR

An endless, dense chemical supply makes extraction highly viable for enclosed surface habitats.

Oxygen Intake

Atmospheric Refining. Utilizing high-temperature electrolysis to strip oxygen ions from the Venusian CO₂ stream.

❄️ Process: Solid Oxide Electrolysis (SOXE).
🏗️ Byproduct: Compressed Graphite for hull repair.
🔋 Efficiency: 72% O₂ recovery per cycle.

💨

New Horizons: ATMO_CONVERSION

O2 PURITY:

99.8%

SCRUBBERS: NOMINAL

Split-Cycle

Electrolysis Active. Breaking the C=O double bonds at 800°C to release breathable oxygen into the habitat primary scrubbers.

🔥 Thermal: Solid Oxide Ceramic reached 800°C.
⚡ Current: 450V DC applied to ion membrane.
💨 Output: 1.2kg O₂/hour recovered.

🧬

New Horizons: O2_GEN_V3

CONVERSION RATE:

72%

BOSCH REACTION: STABLE

Bio-Scrubber

Photosynthetic Sync. Utilizing acid-resistant cyanobacteria to convert ambient CO₂ into breathable O₂ and structural biomass.

🧪 Culture: Strain-V7 (Acid-Shielded Algae).
☀️ Irradiance: High-UV intake conversion active.
💨 Output: 0.25g O₂ / hour / m².

🌿

New Horizons: BIOMASS_SYNC

HEALTH INDEX:

94%

ACID-TOLERANCE: MAX

Sabatier Sync

Fuel & Water Synthesis. Leveraging the Sabatier reaction to convert CO₂ waste into liquid methane and recycled H₂O.

🔥 Thermal: Catalyst bed stabilized at 400°C.
💧 Recovery: 98% water reclamation efficiency.
🚀 Storage: CH₄ cryogenic liquefaction active.

🚀

New Horizons: SABATIER_V4

CH4 YIELD:

92.4%

REACTION: EXOTHERMIC

MISSION: VENUS / RESOURCE HARVESTING

ATMOSPHERIC CONVERSION: THE CO2 RESOURCE

Venus is essentially a giant chemical reactor. With an atmosphere composed of 96.5 percent carbon dioxide, we do not need to bring oxygen from Earth; we can manufacture it on-site. The most viable pathway is Solid Oxide Electrolysis (SOEC). By heating the captured atmospheric CO2 to extreme temperatures and passing it through a ceramic electrolyte, we can split the molecular bonds to separate oxygen. This process effectively converts an environmental hazard into a life-sustaining asset, turning the dense, suffocating clouds of Venus into a source of breathable air and potential chemical propellant.

Atmospheric CO2 96.5 Percent

Primary Process Solid Oxide Electrolysis (SOEC)

Output O2 (Oxygen) and CO (Carbon Monoxide)

MISSION: VENUS / THERMAL POWER

ENERGY DYNAMICS: THE THERMAL TAX

Solid Oxide Electrolysis requires high temperatures to function, typically between 600 and 850 degrees Celsius. While Venus has a hot environment, it is not hot enough to power the reaction passively. This creates a significant thermal tax. The system must not only provide the electrical energy to split the CO2 molecules (Energy = Voltage * Current), but it must also maintain a high-heat core while insulated from the ambient environment. Because of this, the most efficient mission architecture uses small-scale nuclear-thermal reactors to provide consistent, high-grade heat and electricity, bypassing the intermittency of solar power in a cloudy, dense atmosphere.

Operational Temp 600 - 850 Degrees Celsius

Power Formula Power = Voltage * Current

Primary Load Thermal Management / Electrolysis

MISSION: VENUS / RESOURCE MANAGEMENT

CARBON: THE CONSTRUCTION RESOURCE

The electrolysis of CO2 doesn't just create oxygen; it leaves behind carbon monoxide (CO) and potentially solid carbon. Instead of venting this, we can deploy the Bosch process to react CO with hydrogen to create water and solid graphite carbon. This solid carbon is an incredibly valuable commodity. It can be fed into 3D printing systems to create high-strength, lightweight building materials, or even processed into graphene for electronics. By sequestering the carbon into solid form, we solve the toxicity problem of gaseous byproducts and provide a continuous supply of material for expanding the base infrastructure.

Byproduct Management Bosch Reaction (CO + 2H2 -> C + 2H2O)

Material Potential Solid Graphite / Graphene

Application Additive Manufacturing (3D Printing)