Porsche®

Engineered to sharpen front-axle bite and regulate localized flow structures on the Porsche 911 GT3 Cup (992.1) platform, these CFD-developed carbon fiber canards (dive planes) optimize high-velocity air management across the outer front fascia. Positioned where dynamic pressure is highest, the dive planes generate localized downforce directly over the front axle while initiating high-energy vortices along the vehicle’s flanks to promote front wheel-arch air extraction and reduce drag-inducing corner turbulence.Calibrated to operate in complete fluid-dynamic synchronization with 992.1 Cup front splitter and rear wing configurations, the canards increase front-tire contact-patch loading during turn-in, eliminating high-speed understeer and delivering immediate steering precision into deep apexes. Manufactured via Industrial Laser Powder Bed Fusion (L-PBF) using a motorsport-grade, carbon-reinforced thermoplastic matrix, these canards are built to withstand the extreme mechanical loads and punishing environments of competitive track driving. The laser-sintered polymer structure delivers exceptional impact resistance against high-velocity tire debris and gravel strikes, paired with high thermal stability near elevated heat sources. Processed through post-sinter thermal pressure curing and a vapor-smoothed surface treatment, the canard profiles preserve clean airflow delivery to downstream aero components while maintaining an unyielding structural footprint under peak downforce loads. Technical Specifications:  Manufacturing Process: Industrial Laser Powder Bed Fusion (L-PBF) Additive Manufacturing Material Matrix: Motorsport-Grade Carbon-Reinforced Polyamide (High-Density Thermoplastic)Thermal & Impact Profile: High Heat Deflection Temperature (HDT) with high-impact debris dissipationPost-Processing: Pressure-cured thermal stabilization & high-precision vapor-smoothed finish Aero Profile: CFD-optimized dive plane geometry engineered for vortex generation and boundary-layer flow controlMounting & Fitment: Precision contour-matched interface engineered for direct 992.1 GT3 Cup bumper integration System Integration: Calibrated to function seamlessly with 992.1 Cup front splitters and rear wing assemblies for complete aerodynamic platform balancePrimary Function: Front-axle downforce generation, high-speed turn-in bite, front wheel-arch pressure relief, and understeer suppression

Derived directly from 992 GT3 Cup motorsport architecture, this high-efficiency single-element wing is engineered to maximize rear-axle downforce and high-speed dynamic stability on the 992.1 GT3 platform. Designed to operate in complete fluid-dynamic harmony with OEM front-end aerodynamics, the system generates usable high-speed rear traction without inducing parasitic drag penalties that sacrifice top-end straightaway velocity. Utilizing top-mount swan-neck geometry, the wing leaves the lower suction surface completely unobstructed—preventing premature boundary layer separation across the high-velocity underside where the majority of downforce is generated. Developed through Computational Fluid Dynamics (CFD), the 320mm chord profile and 1,750mm wingspan feature multi-position Angle of Attack (AoA) adjustability and precision angled-cut endplates to manage spanwise tip-vortex shedding. Manufactured from high-modulus prepreg carbon fiber and autoclave cured under extreme pressure and temperature, the assembly attaches directly to factory chassis mounting hardpoints to deliver maximum structural rigidity under severe dynamic loads with minimal added mass. Technical Specifications: Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured) Aero Profile: CFD-developed single-element airfoil with precision angled-cut endplatesElement Dimensions: 1,750 mm Wingspan | 320 mm Chord LengthMounting Interface: Direct OEM chassis-point integration with top-mount swan-neck upright configurationAdjustability: Multi-position Angle of Attack (AoA) tuning for circuit-specific aerodynamic balancingLineage & Standards: Inspired by 992 GT3 Cup motorsport architecture; engineered to GT3-level aerodynamic efficiency standardsPrimary Function: High-speed rear-axle downforce, lower-surface boundary layer optimization, and directional chassis composure under peak dynamic loads

Engineered to optimize front-axle downforce and local flow structures on the Porsche 911 (992.1 GT3) platform, these CFD-validated carbon fiber canards (dive planes) regulate high-pressure air accumulation across the front fascia. By generating localized front downforce and driving high-energy vortices along the vehicle’s flanks, they promote wheel-arch air extraction—effectively suppressing drag-inducing front-corner turbulence and stabilizing boundary-layer airflow along the fenders and side profile.Calibrated to operate in complete fluid-dynamic synchronization with Vulcan Alpha front splitter and rear wing systems, the dive planes increase front-tire contact-patch loading during turn-in to mitigate high-speed understeer and sharpen transient steering response. Manufactured from high-modulus prepreg carbon fiber and cured in an autoclave under high pressure and temperature, each plane maintains its precise 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-validated dive plane geometry engineered for vortex generation and boundary-layer flow controlMounting & Fitment: Precision contour-matched interface engineered for seamless 992.1 GT3 bumper integrationSystem Integration: Calibrated to function seamlessly with Vulcan Alpha front splitters and rear wing assemblies for complete aerodynamic platform balancePrimary Function: Front-axle downforce generation, front wheel-arch pressure relief, and enhanced high-speed turn-in steering precision

Engineered to resolve factory front-axle downforce limitations on the 992.1 GT3 platform, this high-efficiency carbon fiber front splitter establishes powerful ground-effect suction across the front underbody. By creating a high-pressure stagnation zone above the leading edge while accelerating high-velocity air underneath, the system significantly attenuates front-end lift, driving high-speed turn-in precision and front-tire contact-patch loading through severe cornering and braking phases. Developed using Computational Fluid Dynamics (CFD) and backed by empirical track telemetry, the splitter features an integrated flat-floor undertray profile designed for smooth laminar flow continuation. The composite structure is reinforced along high-load stress vectors and features flush-mounted metallic sacrificial wear pucks along the underside to protect the carbon matrix during track compression and curb strikes. Manufactured from high-modulus prepreg carbon fiber and cured in an autoclave under high pressure and temperature, the assembly attaches to factory chassis hardpoints to deliver exceptional structural rigidity with minimal added mass.Technical specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured) with impact-reinforced leading edgeAero Profile: CFD-modeled flat-floor undertray geometry engineered for maximum ground-effect downforce and controlled dragAbrasion Protection: Integrated metallic sacrificial wear plates (skid pucks) positioned across high-contact underside zonesMounting & Rigidity: Precision CNC-trimmed OEM mounting interface; optional high-tensile aluminum support rods available for extreme aerodynamic load applicationsGround Clearance: Optimized vertical profile designed to balance underbody proximity effect with real-world road and track clearanceSystem Integration: Calibrated to operate in complete fluid-dynamic synchronization with Vulcan Alpha rear wing assemblies for total platform balancePrimary Function: Front-axle downforce generation, high-speed lift reduction, and enhanced turn-in steering feedback

Derived directly from 992 GT3 Cup motorsport architecture, this high-efficiency single-element wing is engineered to maximize rear-axle downforce and high-speed dynamic stability on the 992.2 GT3 platform. Designed to operate in complete fluid-dynamic harmony with OEM front-end aerodynamics, the system generates usable high-speed rear traction without inducing parasitic drag penalties that sacrifice top-end straightaway velocity.Utilizing top-mount swan-neck geometry, the wing leaves the lower suction surface completely unobstructed—preventing premature boundary layer separation across the high-velocity underside where the majority of downforce is generated. Developed through Computational Fluid Dynamics (CFD), the 320mm chord profile and 1,750mm wingspan feature multi-position Angle of Attack (AoA) adjustability and precision angled-cut endplates to manage spanwise tip-vortex shedding. Manufactured from high-modulus prepreg carbon fiber and autoclave cured under extreme pressure and temperature, the assembly attaches directly to factory chassis mounting hardpoints to deliver maximum structural rigidity under severe dynamic loads with minimal added mass.Technical Specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-developed single-element airfoil with precision angled-cut endplatesElement Dimensions: 1,750 mm Wingspan | 320 mm Chord LengthMounting Interface: Direct OEM chassis-point integration with top-mount swan-neck upright configurationAdjustability: Multi-position Angle of Attack (AoA) tuning for circuit-specific aerodynamic balancingLineage & Standards: Inspired by 992 GT3 Cup motorsport architecture; engineered to GT3-level aerodynamic efficiency standardsPrimary Function: High-speed rear-axle downforce, lower-surface boundary layer optimization, and directional chassis composure under peak dynamic loads

Engineered specifically for the uncompromising performance envelope of Porsche’s premier factory race platform, this high-efficiency dual-element carbon wing delivers a substantial increase in rear-axle downforce over the single-element OEM configuration. Designed as a direct-fit motorsport upgrade, the assembly integrates seamlessly with factory 992.1 GT3 Cup top-mount swan-neck uprights, utilizing existing mounting hardware without requiring custom fabrication or structural alterations.By splitting the aerodynamic load across a CFD-optimized main plane and an adjustable secondary flap, the dual-element profile induces high slot-gap flow acceleration. This re-energizes the underside boundary layer, allowing the wing assembly to operate at significantly steeper effective Angles of Attack (AoA) without inducing flow stall or boundary layer separation. The resulting deep low-pressure vacuum across the lower suction surface substantially expands rear-axle downforce during low-to-mid-speed cornering and threshold braking phases—stabilizing rear chassis rotation upon turn-in and allowing earlier, more aggressive throttle application on exit. Constructed from high-modulus prepreg carbon fiber and autoclave cured under high pressure and temperature, the 1,800mm element features integrated top-mount swan-neck interfaces to leave the high-velocity lower surface completely unobstructed. Accompanied by race-spec planar carbon endplates and precision-machined multi-position adjustment brackets, the system delivers uncompromised torsional rigidity under extreme dynamic pressure with minimal added mass.Technical Specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-developed dual-element profile (Static Main Plane + Adjustable High-Camber Flap) with race-spec carbon endplatesElement Dimensions: 1,800 mm WingspanMounting Interface: Direct-fit integration with OEM 992.1 GT3 Cup swan-neck top mountsAdjustability: Multi-position slot-gap bracketry and Angle of Attack (AoA) flap articulation for track-specific aerodynamic tuningStandards: Engineered to factory GT3 Cup race-spec aerodynamic load parametersPrimary Function: Low-to-mid-speed rear traction, boundary-layer slot re-energization, trail-braking rear-axle stabilization, and threshold braking composure

Engineered specifically to eliminate factory front-axle downforce limitations on the 992.1 GT3 Cup platform, this high-efficiency carbon fiber front splitter delivers uncompromised front-end authority and high-speed dynamic balance. By establishing a dense high-pressure stagnation shelf above the leading edge while accelerating airflow velocity underneath the flat underbody, the splitter creates powerful ground-effect suction—pinning the front axle to the track to eliminate high-speed understeer and sharpen turn-in precision.Developed through Computational Fluid Dynamics (CFD) and empirical track telemetry, the assembly features seamless locking extensions that unify the splitter architecture with the front fascia. Engineered for hard circuit environments, the composite structure incorporates a dedicated air jack pass-through port for unhindered pit-lane pneumatic jack operation, along with flush-mounted titanium skid plates across high-wear contact zones to protect the carbon matrix during track compression and curb strikes. Constructed from high-modulus prepreg carbon fiber and autoclave cured under high pressure, the splitter delivers exceptional structural rigidity and connected steering feedback under extreme dynamic loads.Technical Specifications:Structure: High-modulus Prepreg Carbon Fiber (Autoclave Cured)Aero Profile: CFD-modeled flat-floor undertray geometry engineered for ground-effect downforce and high-speed pressure balanceMotorsport Features: Integrated air jack access port for rapid pit-lane operation; flush titanium skid plates for severe track-abrasion protectionMounting & System Integration: Seamless extension locking system for rigid chassis/bumper integration; calibrated to pair with 992.1 Cup rear wing configurationsPrimary Function: Front-axle downforce generation, high-speed understeer suppression, trail-braking chassis composure, and air-jack compatibility