Lamborghini Huracán LP580-2 / 610-4 Equal-Length Race Headers VANTA Edition - Yonristic Performance
Lamborghini Huracán LP580-2 / LP610-4 VANTA Edition Equal-Length Race Headers True 5-Into-1 Architecture | Gold Ceramic Thermal Protection Equal-Length Engineering. Pure High-RPM V10 Sound. The Yonristic Performance VANTA Edition Equal-Length Race Headers are engineered to unlock the sharpest, cleanest, and most exotic character from the Lamborghini Huracán’s naturally aspirated V10. Each cylinder receives its own individually routed primary tube, with all five runners on each engine bank precisely length-matched before merging through a dedicated 5-into-1 collector. This carefully developed architecture improves exhaust-pulse consistency, strengthens scavenging, and allows the V10’s upper-frequency harmonics to develop with far greater clarity. Constructed entirely from AISI 304 stainless steel, protected by our lightweight VANTA Edition ceramic thermal coating, and engineered from vehicle-specific 3D scan data, these headers are built for owners seeking the most uncompromised sound and craftsmanship available for the LP580-2 and LP610-4 platform. Product Description The naturally aspirated V10 is the defining element of the Lamborghini Huracán. Its immediate throttle response, rising mechanical intensity, and ability to build sound continuously toward redline give the LP580-2 and LP610-4 an emotional character that few modern cars can match. However, the factory exhaust manifolds are designed around packaging, manufacturing efficiency, emissions requirements, and broad-market refinement rather than perfect primary-runner equality or maximum acoustic precision. The Yonristic VANTA Edition Equal-Length Race Headers replace that compromise with a purpose-engineered exhaust architecture built around one objective: allowing every cylinder to contribute to the final sound with consistent timing and equal acoustic weight. Each side of the V10 contains five cylinders. In this system, every cylinder receives its own independent primary runner from the exhaust port to the collector. Those five runners remain separated through their carefully shaped routes and merge only when they reach the common 5-into-1 collector for that bank. Because the exhaust ports sit at different physical positions along the cylinder head, a simple set of direct runners would naturally have different lengths. The cylinders positioned closer to the collector would have shorter paths, while those farther away would require longer paths. That difference would cause exhaust pulses to reach the collector at inconsistent stages, reducing harmonic clarity and creating more irregular pressure interaction. To solve this, the Yonristic design deliberately gives every runner a different physical route. Some primaries follow a longer outside path, while others use tighter loops and compact turns to add the exact distance needed. The complex looping visible throughout the design is functional rather than decorative: each curve is used to equalize the centerline distance traveled by the exhaust pulse from its individual cylinder port to the collector. The result is a true equal-length arrangement across all five runners on each bank. Although the runners appear visually different, their effective lengths are carefully balanced so that the pulses arrive at the collector in a far more organized sequence. This creates a cleaner transition from individual cylinder events into one unified bank output. True 5-Into-1 Collector Architecture After traveling through the five equal-length primary runners, the exhaust pulses converge through a dedicated 5-into-1 collector on each side of the engine. This arrangement allows all five cylinders from one bank to merge into one optimized outlet before continuing toward the rest of the exhaust system. The collector is one of the most critical areas of any header. An abrupt or poorly shaped merge can create turbulence, interrupt gas velocity, and cause pressure waves to interfere with one another. Our collector geometry is engineered to bring all five primaries together progressively, reducing sudden changes in direction and helping maintain exhaust energy through the merge. Casted transition components are used at critical areas where precise internal geometry is essential. Unlike a basic collector assembled only from cut tubing, cast construction allows the internal merge shape, wall transitions, and connection surfaces to be controlled more accurately. This improves structural consistency while creating a smoother path for the five exhaust streams as they become one. By organizing the pulses before they enter the collector and controlling the merge afterward, the system supports stronger scavenging and cleaner pressure-wave behavior. As one cylinder expels its exhaust charge, the movement of that pulse can help create a low-pressure area behind it, assisting the next cylinder’s evacuation. The benefit is most apparent as engine speed rises and the spacing between individual exhaust events becomes increasingly critical. Engineered for the Highest-Pitched V10 Character These headers are not designed simply to increase volume. Their purpose is to change the quality and structure of the sound. Unequal runner lengths can cause pulses to arrive at the collector at inconsistent intervals, which may introduce a rougher, less focused exhaust note. A true equal-length system organizes those events more precisely, helping the engine produce a smoother and more continuous frequency progression. At idle and lower engine speeds, the headers give the V10 a more mechanical and defined character. Through the midrange, individual pulses begin to blend into a cleaner, more unified tone. As the engine approaches the upper rev range, the equal-length runners and 5-into-1 collectors allow the sound to tighten into a sharper, higher-frequency V10 wail. When paired with a high-flow or F1-style cat-back exhaust, the complete system can produce a far more intense motorsport-inspired sound than the factory manifold arrangement. The note becomes less muffled, more immediate, and increasingly exotic as RPM rises—exactly the transformation expected from a properly engineered equal-length header system. Ceramic Thermal Coating Every header is treated with our gold ceramic thermal coating, developed to provide meaningful thermal protection without the bulk and weight of conventional external metal shields. The coating creates a thermal barrier directly on the header surface, helping contain heat within the exhaust path and reduce radiant temperature around the surrounding engine-bay components. Keeping more thermal energy inside the tubing can also help maintain exhaust-gas velocity as gases travel toward the collector. The coating is specified to resist temperatures up to approximately 1,000°C / 1,832°F, making it suitable for the extreme operating environment surrounding a high-revving, mid-mounted V10. It is engineered to withstand repeated thermal cycles while protecting the underlying stainless steel from direct exposure to heat and oxidation. Unlike untreated stainless steel, which naturally changes color as temperature increases, the ceramic finish is designed to preserve its signature gold appearance and resist heat-related fading and discoloration. The result is both functional and visual: premium thermal management paired with the unmistakable VANTA finish. Because the ceramic barrier is applied directly over the header rather than assembled as a heavy external shell, it provides a cleaner and more lightweight solution. This allows the complex equal-length runners to remain visible while still receiving comprehensive heat protection. AISI 304 Stainless-Steel Construction The complete header system is manufactured from AISI 304 stainless steel, selected for its strength, corrosion resistance, weldability, and ability to withstand repeated high-temperature cycles. The material provides the durability required for a tightly packaged mid-engine application, where the headers are exposed to constant expansion, contraction, vibration, and extreme heat. Its structural stability allows the intricate runner paths to maintain their shape and alignment over time, while its corrosion resistance makes it suitable for both performance driving and long-term ownership. Every runner is carefully formed and hand TIG-welded. Weld placement is controlled to maintain structural strength while preserving a clean internal flow path. The complete left and right banks are built to remain symmetrical in function, even though each individual tube follows a unique path to achieve true equal length. Integrated Flex Sections Each bank incorporates a high-temperature flex section between the collector assembly and the downstream exhaust connection. These flex joints are essential in a system with long, tightly routed primary tubes. As the engine and headers heat up, the metal expands. Engine movement under acceleration and deceleration also introduces additional stress into the exhaust system. Without a flexible section, that movement could be transferred directly into the cylinder-head flanges, collector joints, welds, or downstream exhaust components. The integrated flex sections absorb a controlled amount of thermal expansion and powertrain movement, reducing stress across the header assembly. This helps protect the precision fitment, preserve flange alignment, and improve long-term durability without interfering with the primary-runner geometry. 3D-Scanned Fitment and Casted Connections The header system is developed from detailed 3D scans of the Huracán’s engine bay, cylinder-head locations, surrounding components, and exhaust connection points. This data allows the runner paths to be designed within the limited available space while maintaining clearance from the chassis, heat-sensitive components, and drivetrain hardware. The cylinder-head flanges are shaped for accurate port alignment and consistent sealing. Casted components are used in critical transition and connection areas to improve dimensional consistency and allow more complex internal geometry than simple fabricated pieces. Mounting brackets, oxygen-sensor locations, flex sections, and downstream joints are positioned to match the vehicle-specific layout. The result is an engineered replacement system designed for accurate alignment rather than a universal header adapted to fit. Professional installation is strongly recommended due to the packaging and complexity of the mid-mounted V10 platform. True Equal-Length, Five-Runner Design Each cylinder on the Huracán’s two five-cylinder banks receives its own independent primary runner. Because the exhaust ports are positioned at different distances from the collector, each runner uses a unique combination of bends, loops, and routing to equalize its effective length. The five individual tubes remain separate until they reach the dedicated 5-into-1 collector, allowing the exhaust pulses to arrive in a more consistent and organized sequence. This is the foundation of the system’s cleaner harmonic structure and high-frequency V10 character. Ceramic Heat Protection The complete header assembly is coated with our gold ceramic thermal barrier, rated for temperatures up to approximately 1,000°C / 1,832°F. The coating helps contain heat within the exhaust path, reduces radiant temperature around surrounding components, and provides a lighter alternative to bulky external shielding. It is also engineered to resist thermal discoloration and preserve the distinctive gold appearance through repeated heat cycles. Casted Collectors, Flex Joints, and 3D-Scanned Fitment Precision casted transition components create smoother internal collector geometry and consistent connection surfaces, while integrated flex joints absorb engine movement and thermal expansion. Every runner, bracket, flange, and sensor location is developed from vehicle-specific 3D scan data to achieve precise fitment within the tightly packaged Huracán engine bay. Performance Benefits The true equal-length configuration and 5-into-1 collectors are designed to improve: Exhaust-pulse consistency between cylinders High-RPM scavenging efficiency Exhaust-gas velocity through the collector Throttle response and engine immediacy Upper-RPM breathing Sound clarity and harmonic balance High-frequency V10 character Final power output will depend on the complete exhaust configuration, catalytic setup, ECU calibration, fuel quality, and vehicle condition. Dyno testing is recommended before advertising a specific horsepower figure. Key Specifications Product Type Equal-length performance race headers Engine Architecture Naturally aspirated 5.2-liter V10 Five independent primary runners per cylinder bank Ten individual primary runners total Collector Design True 5-into-1 collector on each bank Progressive casted merge geometry One unified outlet per engine bank Material AISI 304 stainless steel Thermal Protection VANTA Edition ceramic thermal coating Specified temperature resistance up to approximately 1,000°C / 1,832°F Designed to reduce radiant heat and resist discoloration Construction Individually routed equal-length primaries Hand TIG-welded assembly Casted transition and connection components Integrated high-temperature flex sections Precision oxygen-sensor provisions Engineering Developed from vehicle-specific 3D scan data Designed around factory engine-bay clearances Precision cylinder-head flange alignment Vehicle-specific brackets and connection points Installation Direct replacement header system Professional installation strongly recommended Compatible downstream exhaust configuration must be confirmed before ordering Vehicle Fitment Lamborghini Huracán LP610-4 Coupe — 2014–2019 Lamborghini Huracán LP610-4 Spyder — 2016–2019 Lamborghini Huracán LP580-2 Coupe — 2016–2019 Lamborghini Huracán LP580-2 Spyder — 2017–2019 Engine: 5.2-liter naturally aspirated V10 This listing is intended for original-generation LP580-2 and LP610-4 applications. Fitment for Huracán EVO, Performante, Tecnica, STO, Sterrato, or other derivatives should be confirmed separately before ordering.
Free Flow Headers, High Flow Headers (200 Cells)