Space
Rockets and spacecrafts endure extreme heat, erosion, and micro-debris impacts, resulting in costly refurbishments per launch.
Our novel materials extend the lifecycle of critical components by resisting thermal shock, oxidation, and certain orbital impacts - enhancing spacecraft survivability, lowering costs per launch, and driving rapid reusability.
Visual shown is a conceptual application demonstration
-
Safeguards propellant tanks, feedlines, and valves from cryogenic cycling, liquid fuel exposure, and hydrogen-induced cracking.
Ablation
& Surface Erosion
-
Extends life of rocket fairings, and structual joints by resisting ablation, plasma erosion, and gas shear effects.
Micrometeoroid & Debris Impact
-
Shields satellite structures and spacecraft hulls from high-velocity particle strikes and small orbital debris penetration.
Thermal Fatigue & Oxidation
-
Protects cryogenic tanks, valves, and feedlines from repeated chill–heat cycles and oxidative stress during launch and re-entry.
Space Applications
Propulsion & Power Systems
-
Engine Throat Wear Layers (outer protective coat only)
-
Turbopump Bearings, Shafts & Housings
-
Fuel Injectors & Injector Plates
-
Cryogenic Pump Impellers & Valve Components
-
Power Generation Turbines
-
Electric Propulsion Thruster Components
Thermal Protection & Structures
-
Fuselage / Outer Hull Micrometeoroid Shielding
-
Structural Joints & Fasteners (thermal cycling & oxidation control)
-
Internal Tank Surfaces (thermal fatigue resistance)
-
Secondary Frames & Load-Bearing Members (oxidation/erosion resistance)
Orbital & Control Systems
-
Satellite Thruster Components (cold-gas, monoprop, biprop)
-
Reaction Wheel Bearings & Housings
-
Solar Array Hinges & Deployment Mechanisms
-
Attitude Control System Valves & Actuators
-
Antenna / Sensor Gimbal Bearings
Fuel & Fluid Systems
-
Cryogenic Tank Linings (LOX, LH₂, CH₄)
-
High-Pressure Lines & Fittings
-
Pump & Valve Internals (propellant feed systems)
-
Manifolds & Distribution Blocks
-
Heat Exchanger Surfaces (fuel preburner loops)
Environmental & Survivability
-
Micrometeoroid & Orbital Debris Shields (sacrificial outer layers)
-
Anti-oxidation Coatings for Long-Duration Orbits (LEO/GEO)
-
Radiation-Resistant Coatings for Electronics Housings
-
Thermal Radiator Panels (oxidation & atomic oxygen resistance)
-
Protective Coatings for Docking Mechanisms
Get Involved
Engage with Mjolner today by requesting a sample.
Spacecraft : Micrometeoroid impact (2-3mm 7km/s), Immunity to Particle impact
Landing Gear & Structural Joints (Reusable Boosters) : Fatigue resistance +40%, Refurbishment time reduction +25%
Reaction Wheels & Bearings : Component life +40%, Reduced in-orbit failures +30%
Fuel Pump & Valve Internals (Cryogenic) : Reliability +40%, Overhaul cycle extension +30%
Re-entry Heat Shields (non-thrust surfaces) : Thermal shock resistance +25%, Crack/erosion prevention +20%
Payload Bay & Fairing Liners : Erosion resistance +30%, Cleaning/turnaround time reduction +25%
"Performance data represents estimated ROIs based on publicly available sources and benchmark studies. Actual results will vary on a case-by-case basis."
Application Methods - The Process
Our Tailored Coating Process
-
You Define the Mission: Tell us your component and performance requirements.
-
We Engineer & Sample: We customize material formulations & methods and deliver test samples.
-
You Validate: Run your application-specific tests; if needed, we refine the formulation.
-
We Finalize & Deliver: Lock in coating methods, process your parts, and share the performance data.
We are here to Precisely Tuned to Your Needs.
Thermal Spray
Cold Spray
PVD
HVOF/HVAF
