Aviation Systems

Aircraft operate under severe erosion, vibration, thermal cycling, and environmental exposure across airframes, propulsion systems, and mission-critical components.

Mjolner’s advanced materials and coatings are designed to improve resistance to wear, corrosion, and thermal degradation without imposing significant mass penalties, supporting readiness across fixed-wing and rotary-wing platforms.

Image shown is a conceptual application illustration

Enhancing Aircraft Life-Cycle

Wear
& Erosion

Improves resistance to particle erosion, rain erosion, and debris impact on exposed surfaces and rotating components.

Corrosion

Protects compressor, turbine, and exposed airframe components from moisture, residues, and environmental attack.

Mechanical Fatigue

Reduces microcracking, spalling, and fatigue under repeated high-load stress

Thermal Stress & Oxidation

Supports high-temperature service in propulsion-adjacent components and exposed high-heat zones.

Performance Advantages

Wear & Erosion Resistance

Nano-gradient architecture disperses abrasion from sand, dust, rain, and airborne particles. Preserves wing leading edges, engine inlets, and rotor blades from aerodynamic surface loss

Corrosion Protection

Seals underlying material against fuel, hydraulic fluid, chemicals, and atmospheric moisture. Prevents pitting and galvanic corrosion on airframe structures and landing gear assemblies.

Mechanical Fatigue Mitigation

Layered composition diffuses cyclic stresses from sustained high-G manoeuvres, turbulence, and repeated pressurisation cycles. Slows crack propagation in spars, rotor hubs, and structural joints.

Thermal Stress & Oxidation

Withstands sustained heat and shields against oxidation, scaling, and adhesion loss in exhaust ducts, hot-section panels, and fasteners.

Aircraft Applications

Compressor Blades & Disks
Resists wear and oxidation from airborne particulates, extending time-on-wing and reducing hot-section replacements.

Wing & Tail & Blade Leading Edges

Shields against sand, rain, and debris impacts, maintaining aerodynamic shape and maximising lift efficiency in high-erosion environments.

Turbine Blades
Forms a high-temp thermal-erosion barrier, improved sortie rates and longer TBC lifespan.

Landing-Gear Struts & Actuators

Seals out corrosive fluids and salt-laden air while absorbing high-energy landing shocks - preventing pitting, deformation, and joint seizure.

Gearbox Gears

Prevents micro-pitting and lubricant-borne abrasion under heavy torque, extending gear life and significantly lengthening rebuild intervals.

Tail-Rotor Drive Shafts
Resists torsional fatigue and microcracking while sealing out salt, moisture, and thermal cycling damage - slowing wear, maintaining torque transfer, and extending service life.

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Peformance Data

Compressor Blades & Disks : +30% TBO

Wing & Tail Leading Edges : -20% A-check downtime

Turbine Blades : 2× TBC lifespan

Landing-Gear Struts & Actuators : 2× MRO Intervals

Gearbox Gears : +40% MTBF

Drive Shafts : -60% Shaft rebuilds

Tail-Rotor Drive Shafts : 2× Interval

Main-Rotor Mast Bearings : +50% Bearing life

Pitot-Static Tubes & Probes/APU Vent : -80% Probe replacements

"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.