G80

Engineered to resolve structural energy loss in high-downforce trunk-mounted configurations, these carbon fiber support braces establish a direct structural load path between the rear wing uprights and the primary chassis frame. By isolating the trunk lid from high vertical and torsional forces, the system eliminates sheet-metal deflection, preventing long-term panel fatigue while ensuring generated aerodynamic downforce is transferred directly into the chassis.Constructed from high-modulus prepreg carbon fiber structural tubing and precision-machined aluminum end mounts, the braces install internally within the trunk bay directly below the upright mounting interfaces. A reinforced upper load-distribution plate spreads point-loads across the mounting area, delivering maximum structural rigidity with minimal mass.Technical specifications:Structural Construction: High-modulus Prepreg Carbon Fiber structural tubing with CNC-machined aluminum end mounts Load Distribution: Reinforced upper backing plates engineered for point-load mitigation across mounting surfacesPrimary Function: Direct aerodynamic load transfer from wing uprights to chassis frame hardpointsStructural Benefit: Eliminates trunk lid flexing, downforce energy dissipation, and panel deformation under peak aero loadsInstallation Interface: Internal trunk-bay mounting aligned directly with upright load vectorsFitment & Compatibility: Modular configuration—application-specific geometry verification available upon request

Engineered to factory-race aerodynamic parameters for the front-engine, rear-wheel-drive envelope of the BMW G80 M3 platform, this dual-element wing integrates a pneumatically actuated Drag Reduction System (DRS) to deliver high cornering downforce while shedding parasitic drag along straightaways. The dual-element architecture pairs a CFD-optimized static main plane with an active secondary flap featuring a 30° pneumatic actuation range.Driven by an onboard 330cc air reservoir and 12V power connection, the DRS enables instantaneous aerodynamic transitions, achieving up to a 50% reduction in wing-induced drag at 300 km/h. Top-mount swan-neck uprights preserve high-velocity airflow across the main element's lower suction surface, while direct chassis-frame mounting routes downforce directly into the unibody, eliminating trunk panel deflection under peak aerodynamic loads.Technical Specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-developed dual-element profile (Static Main Plane + Active Flap)Element Dimensions: 1,610 mm Wingspan | 220 mm Main Chord | 150 mm Flap ChordMounting Interface: Direct chassis-mounted swan-neck upright configurationActuation System: Pneumatic DRS (30° articulation range) with 330cc air tank and 12V integrationEfficiency Metric: ~50% drag reduction at 300 km/hValidation & Function: Validated via CFD simulations and empirical track telemetry for high-G cornering grip and straight-line velocity optimization

Engineered specifically for the aerodynamic footprint of the BMW G80 M3 chassis, this single-element wing delivers linear rear-axle downforce to stabilize the chassis under heavy deceleration and high-velocity cornering. Formulated to work in aerodynamic synchronization with front-end downforce generators, the system preserves front-to-rear pitch and roll balance without imposing parasitic drag penalties that diminish straight-line speed.Utilizing Computational Fluid Dynamics (CFD), the 320mm chord profile and 1,500mm wingspan are paired with planar flat endplates to control spanwise tip-vortex shedding and maintain clean airflow attachment across the span. Constructed from high-modulus prepreg carbon fiber and cured in an autoclave under high pressure and temperature, the element ensures maximal torsional rigidity and structural integrity with minimal added mass.Technical specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-developed single-element chord profile with planar flat endplatesElement Dimensions: 1,500 mm Wingspan | 320 mm Chord LengthMounting Interface: Structural bottom-mount upright configurationStandards: GT3-inspired aerodynamic efficiency & platform balanceSystem Integration: Calibrated to pair with Vulcan Alpha front-end aerodynamic components for total chassis balancePrimary Function: High-speed rear-axle traction, pitch stability during heavy braking, and drag-optimized downforce

Engineered to optimize front-axle downforce and local flow structures on the BMW G80 M3 chassis, these CFD-developed carbon fiber canards (dive planes) manage high-pressure air accumulation across the front fascia. By generating localized downforce and initiating controlled high-energy vortices along the vehicle’s flanks, they promote wheel-arch air extraction, effectively reducing drag-inducing front-corner turbulence and lift.Developed to operate in complete fluid-dynamic synchronization with the Vulcan Alpha front splitter and rear wing systems, the canards increase front-tire contact-patch loading during turn-in to reduce high-speed understeer and enhance transient steering response. Manufactured from high-modulus prepreg carbon fiber and autoclave cured under high pressure, each plane maintains its aerodynamic profile under peak dynamic pressure with zero structural deflection and minimal added mass. Technical specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-optimized dive plane geometry engineered for vortex generation and boundary layer controlMounting & Fitment: Precision contour-matched interface engineered to preserve functional ground clearanceSystem Integration: Calibrated to function seamlessly with Vulcan Alpha front splitters and rear wing assemblies for balanced chassis balancePrimary Function: Front-axle downforce generation, front wheel-arch pressure relief, and enhanced high-speed steering precision

Engineered to regulate underbody fluid dynamics across the BMW G80 M3 front fascia, this high-efficiency carbon fiber front splitter establishes high ground-effect suction to maximize front-axle downforce. By creating a high-pressure stagnation zone above the leading edge while accelerating airflow velocity underneath, the splitter significantly attenuates front-end lift, driving high-speed turn-in precision and front-tire contact-patch loading under severe cornering.Developed using Computational Fluid Dynamics (CFD) and empirical track validation, the splitter features an integrated flat-floor profile and optimized undertray transition geometry to ensure laminar airflow continuation toward the floorboard. Constructed from high-modulus prepreg carbon fiber and cured in an autoclave under extreme pressure, the splitter utilizes a reinforced leading edge to resist high-speed dynamic pressure loads and track-surface abrasion, while maintaining an optimized ground-clearance envelope for real-world usability.Technical specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured) with impact-reinforced leading edgeAero Profile: CFD-optimized flat-floor geometry with high-efficiency underbody transition profilingMounting & Interface: Precision CNC-machined mounting interface engineered for direct OEM-point integrationGround Clearance: Optimized vertical profile designed to balance aerodynamic proximity effect with practical ground clearanceSystem Integration: Calibrated to operate in fluid-dynamic harmony with Vulcan Alpha dive planes (canards) and rear wing systems for complete aerodynamic platform balancePrimary Function: Ground-effect front downforce generation, high-speed lift reduction, and enhanced turn-in steering feedback