Which structural foam core is best for resin infusion and RTM composite manufacturing? Selecting the correct material depends directly on your engineering requirements for manufacturing process compatibility and part geometry. ROHACELL® RIMA is engineered for optimal resin distribution in infusion…
How can composite engineers process ROHACELL® foam for high-precision prototyping? CNC machining, laser processing, and advanced molding methods provide the exact tolerances and surface finishes required for demanding aerospace, automotive, and medical applications. This technical guide covers the engineering requirements,…
How do medical imaging tables minimize radiation interference while safely supporting patient weight? Advanced structural foam cores, such as ROHACELL® PMI foam, provide a highly radiolucent, structurally rigid foundation that allows X-rays and CT beams to pass through with minimal…
How do structural foam cores influence antenna design? The dielectric properties of foam cores determine electromagnetic transparency, directly impacting antenna efficiency, bandwidth, and size. For composite engineers, selecting a core with the correct dielectric constant and loss tangent is a…
Why do composite parts manufactured with PMI foam cores experience unexpected weight variations? The primary cause is resin uptake, where liquid matrix materials penetrate the structural foam core’s surface cells during processing, adding significant mass without contributing to lightweight structural…
How do core thickness and density influence the performance of sandwich structures? In composite manufacturing, core thickness primarily dictates bending stiffness, while core density governs shear strength and localized load capacity. Balancing these two engineering requirements ensures lightweight structural performance…
How can composite engineers ensure ROHACELL® structural foam cores maintain dimensional stability during high-temperature autoclave processing? The answer is precise heat treatment. Proper thermal conditioning improves the foam’s compressive creep resistance, enabling reliable processing at temperatures up to 180°C and…
How can composite engineers maintain structural integrity and dimensional stability in aerospace sandwich structures during high-temperature autoclave processing? ROHACELL® XT provides the necessary thermal stability and compressive creep resistance to withstand demanding autoclave curing cycles up to 180°C and pressures…
When should composite engineers specify pre-shaped structural foam cores instead of processing flat sheets in-house? Ordering pre-milled foam cores directly from a materials specialist reduces manufacturing labor, minimizes material waste, and ensures the strict geometric tolerances required for advanced composite…
w ramach Programu Fundusze Europejskie dla Pomorza 2021-2027, Priorytetu FEPM.01 Fundusze europejskie dla konkurencyjnego i inteligentnego Pomorza, Działania FEPM.01.01 Badania i innowacje w przedsiębiorstwach, współfinansowanego z Europejskiego Funduszu Rozwoju Regionalnego . Fundusze Europejskie Dla Pomorza 2021-2027
