NEW Whitepaper: DLC Coating solutions for high-load applications in the mobility industry
The automotive industry is undergoing a transformation toward sustainable mobility, increasing the demand for durable and wear-resistant components. Ionbond presents its latest Whitepaper on advanced Diamond-Like Carbon (DLC) coatings, designed to withstand extreme stresses in mobility powertrains.
Innovative coating technologies for enhanced durability and efficiency
DLC coatings provide exceptional wear resistance, extending component lifespan and reducing maintenance costs. Their low friction properties enhance efficiency by minimizing energy losses due to friction. With multi-layer coating systems, different material properties are combined to deliver superior performance. These coatings have been successfully tested under extreme real-world conditions, proving their ability to improve durability and reliability in high-load applications. Additionally, they contribute to sustainability by supporting eco-friendly mobility solutions and improving energy efficiency.
Key Applications of DLC Coatings:
Powertrain components, including gears and shafts.
Engine parts requiring high wear resistance.
Electric vehicle differential systems to withstand increased loads.
Key applications of DLC coatings:
Powertrain components, including gears and shafts
Engine parts requiring extreme high wear resistance
Fuel injection components for sustainable non-fossil fuel applications
Electric vehicle differential systems to withstand increased loads
Whitepaper
Extreme highly resilient diamond-like carbon coatings for future mobility applications
Discover how DLC coatings enhance performance in high-load conditions. This whitepaper explores their impact on wear resistance, friction reduction, and tool longevity in demanding applications.
8 pages | 15 minutes well spent


Extreme highly resilient Diamond-like carbon coating solutions for future mobility applications
Explore how DLC coatings enhance performance under high-load conditions. This white paper examines their role in improving wear resistance, reducing friction, and extending component longevity in demanding applications.



























