Structural failure and extra weight are the primary risks of manual production. VIP is the superior choice for high-performance parts that must be light and consistently strong. We use a vacuum to pull resin through the dry fibers, which removes air bubbles and creates a very compact material. This achieves a high fiber content (V_f 50–65%), making the part much more resistant to fatigue and cracking. Hand Lay-up is reserved for simple prototypes or very small production runs where weight is not a priority.

Yes. To avoid design errors that lead to mechanical failure, we support your project from the first 3D CAD sketch to the final production. We also define the precise lamination plan and control the heat treatment (curing) to ensure the material remains stable even in high temperatures (T_g).

Structural cracks usually start in "resin-rich" areas where there is not enough fiber. A higher fiber-to-resin ratio (V_f) results in a much more durable part. By keeping the fiber content high (55% or more) through our VIP or RTM processes, the mechanical load is carried by the fibers, not the resin. This prevents micro-cracking and ensures that components like boat hulls or vehicle chassis have a significantly longer operational life.

 Yes. In the automotive and marine sectors, fire and crash safety are mandatory. We develop specialized laminates using fire-retardant resins and coatings that follow international safety rules, such as IMO for ships or automotive safety standards. We can also mix different fibers—including glass, carbon, and aramid—to create structures that absorb high energy during an impact. This protects the integrity of the vehicle and the safety of the people inside.

We work extensively with high-quality Polyester resins, which serve as an exceptionally reliable and versatile standard for a wide range of our structural components. However, the exact choice of the resin system is always tailored to the specific requirements of the client and the final application of the part. When a component faces extreme environmental or mechanical demands, we adapt the matrix accordingly: • Vinylester: We utilize this for marine and chemical-heavy environments to provide superior resistance to water-induced hydrolysis (osmotic blistering). • Epoxy: We select this for extreme high-performance structural applications to achieve maximum ILSS (Interlaminar Shear Strength) and thermal stability, ensuring the matrix maintains its integrity under severe thermal cycling.

Our standard and most widely used reinforcements are glass fibers (fiberglass), which offer an excellent balance of strength, durability, and cost-effectiveness for the majority of industrial applications. However, the exact choice of reinforcement is strictly dictated by the specific mechanical characteristics the final product requires.

For highly specialized components where extreme stiffness, superior tensile strength, and minimal weight are critical, we also utilize carbon fibers. By engineering the right combination of fibers and resins, we ensure each part performs optimally in its intended environment.