Revolutionizing friction materials: the rise of fiber-free, lithium-free titanates

The friction materials industry is undergoing a transformative shift, fueled by growing demands for better performance, eco-friendlier solutions, and reduced dependence on critical raw materials. Among the most promising innovations emerging from this evolution is the development of fiber-free, lithium-free titanates—a new class of materials redefining what's possible in brake pad technology.

The advantages of fiber-free, lithium-free titanates

In a field where every detail matters—temperature resistance, wear properties, environmental impact—the arrival of these next-generation titanates is creating real momentum. Here’s what sets them apart:

• Improved sustainability: Traditional fiber-free potassium titanates often rely on lithium precursors and energy-heavy wet chemical processes. The newer generation eliminates lithium entirely and adopts a dry manufacturing process—dramatically reducing environmental impact, chemical waste, and energy use.

• Reduced reliance on critical materials: Lithium is increasingly in demand across industries, especially in battery production. By removing lithium from friction materials, these titanates contribute to a more resilient supply chain and reduce dependence on a high-risk raw material.

• Cost-effectiveness: The shift to a dry production method doesn’t just benefit the planet—it’s also more economical. Brake pad manufacturers can reduce production costs without compromising on material quality or performance.

Applications in friction materials

As the expectations placed on braking systems continue to rise, so does the need for friction materials that can deliver consistent, high-performance results under pressure. Fiber-free, lithium-free titanates are stepping in as a powerful solution across several key performance areas:

• Enhancing friction stability: Maintaining a stable coefficient of friction is essential for safe, predictable braking. These titanates provide that consistency across varying temperatures and conditions. Research indicates that fiber-free potassium-magnesium titanates exhibit enhanced friction stability in comparison to potassium-lithium titanates or potassium titanates, as illustrated in the accompanying graph.

• Improving fade resistance: Brake fade under high temperatures is a serious safety issue. Thanks to their high thermal stability, these titanates help minimize fade and ensure dependable braking even in extreme situations.

• Reducing wear: Longer-lasting pads mean fewer replacements and lower maintenance costs. The superior wear resistance of these titanates, particularly potassium-magnesium titanates, makes them ideal for extending component lifespan. Particle size also influences wear performance, with larger particles demonstrating reduced wear, especially at elevated temperatures, as illustrated in the below graph.

• Controlling noise and vibration: Noisy brakes aren’t just an annoyance—they can signal performance issues. These titanates contribute to quieter, smoother braking by helping dampen vibrations.

Why choose us? Because innovation starts at the source

What does it take to truly innovate in the world of friction materials? We believe it starts with challenging the status quo. That’s why we’ve pioneered a fiber-free, lithium-free titanate solution that not only meets—but exceeds—the performance and sustainability expectations of today’s automotive industry.

Our dry-process technology eliminates the need for complex wet chemistry and lithium-based ingredients, ensuring a cleaner, more efficient production with consistent material properties. This isn’t just a shift in how titanates are made—it’s a leap forward in how friction materials are imagined.

Whether you're looking to optimize brake pad performance, reduce environmental impact, or gain a competitive edge in cost and supply chain resilience, we are your partner in innovation.