Edelbrock SBC Victor Manifold 2858 15-18 Degree Spider Single Plane Aluminum for Small Block Chevy

The Edelbrock 2858 Victor Manifold is designed for high-performance small block Chevy engines, offering a 15-18 degree spider configuration with a Dominator flange. Crafted from lightweight aluminum, this intake manifold provides optimal air flow and durability for racing and high-output street applications. Its single-plane design enhances throttle response and high-RPM performance, making it an ideal choice for enthusiasts seeking maximum power. The natural aluminum finish ensures corrosion resistance and a clean appearance in engine bays. This manifold is engineered to fit small block Chevy engines with a 15-18 degree intake angle, ensuring precise compatibility and performance gains. Installation requires standard tools and comes with detailed instructions to facilitate straightforward setup. Whether for racing or performance upgrades, the Edelbrock Victor Manifold delivers reliable, high-quality airflow characteristics that can improve horsepower and torque across the RPM range. Designed with a Dominator flange, it provides a secure fit for high-performance carburetors, ensuring stability under demanding conditions. Constructed from durable aluminum, this intake manifold combines lightweight properties with strength, contributing to overall engine efficiency. Perfect for custom builds, restorations, and performance upgrades, this manifold is a critical component for maximizing engine output in small block Chevy applications.

Features:

• 15-18 Degree Spider Design: Optimized for high-RPM performance and throttle response

• Dominator Flange: Ensures secure carburetor mounting for demanding applications

• Single Plane Construction: Enhances airflow for increased horsepower and torque

• Aluminum Material: Lightweight, durable, and corrosion-resistant

• Natural Finish: Provides a clean appearance and resistance to environmental elements

• Perfect Fit for Small Block Chevy Engines: Ensures precise compatibility and optimal performance