SBC Blk Crinkle Diecast V/C's - Raised Emblem

The SBC Blk Crinkle Diecast V/C's with Raised Emblem from PROFORM are premium valve covers engineered for small-block Chevrolet engines demanding both performance and visual appeal. These tall die-cast aluminum covers serve a critical function—they house the valve train while allowing controlled crankcase ventilation through a dedicated breather hole—while delivering the muscular aesthetic that defines serious engine builds. Whether you're restoring a classic muscle car, upgrading a performance cruiser, or building a show-quality small-block, these valve covers combine functional engineering with unmistakable style that catches every eye under the hood.

Constructed from die-cast aluminum, the SBC Blk Crinkle Diecast V/C's feature internal baffles that manage crankcase vapors and oil mist more effectively than standard covers, reducing blowby and protecting ring seals. The raised Chevrolet bowtie emblem is precision-cast into the die-cast body, eliminating adhesive-backed emblems that fade or peel over time. A black crinkle powder coat finish provides durable UV protection and resists heat cycling, oil contact, and engine bay solvents—maintaining that deep, textured black appearance through seasons of use. The tall profile accommodates complex valve train geometries while the breather hole permits proper air exchange without compromising clean engine aesthetics.

These covers are purpose-built for small-block Chevrolet engines and ship as a matched pair, one for each cylinder head. They're ideal for 283, 327, 350, and 400 cubic-inch small-block variants where OEM covers lack visual presence or where baffle-equipped designs improve crankcase management. Installation is straightforward—simply bolt to the existing valve cover studs with appropriate gaskets—making them accessible for DIY builders and professional shops alike. The substantial 7.83-pound weight reflects solid die-cast construction, ensuring longevity in high-heat engine compartments where lighter stamped alternatives would flex or degrade under thermal stress.