

As part of preparations for the 2026 Formula 1 season, Haas has placed special attention on how each aerodynamic component influences the behavior of the VF-26, the single-seater designed to compete under the new technical rules that prioritize energy efficiency and adaptable aerodynamic load.
This comprehensive evaluation includes deciding whether certain wing configurations can deliver real advantages or, on the contrary, represent design risks that could compromise energy management or car stability.
Oliver Bearman has been clear in his approach: the main area of work is not to immediately adopt solutions from others, but first to “fully understand how our car works and what data we have available.” This position highlights that, while innovation is an essential part of aerodynamic development in Formula 1, precise internal analysis of the VF-26 takes priority over implementing concepts that have yet to be validated.
From a technical standpoint, the new 2026 regulations introduce elements such as variable active aerodynamic modes that allow front and rear wing configurations to change depending on the phase of the lap, representing one of the key development paths for all teams across different circuits and track characteristics.
Under this working philosophy, Haas has focused on measuring how variations in aerodynamic load correlate directly with battery management and energy recovery efficiency, factors that carry greater importance in total power delivery and overall race pace under the current rules.
Energy management and car behavior in slow and high-speed corners have already been recurring topics during preseason testing sessions. Bearman emphasized that “every lap we complete provides information that we must filter and verify with simulation models,” meaning that the introduction of aerodynamic adjustments, including new wing profiles and configuration tweaks, must wait until there is a solid and reliable data foundation that guarantees added and measurable performance value.
Beyond aerodynamic evaluation, development of the Haas VF-26 faces challenges common to midfield teams on the grid: correlation between wind tunnel and on-track data, calibration of dynamic balance in varying conditions, and prioritization of reliability under variable energy loads throughout a race distance.
In that sense, Bearman’s caution reflects a technical mindset that prioritizes deep and methodical understanding of the car before adopting changes that could introduce additional uncertainties or unintended performance trade-offs.
With the 2026 calendar about to begin in Melbourne, Australia, the way Haas structures its aerodynamic development process and translates that analysis into concrete and timely updates will serve as an early indicator of how the team can compete consistently in a more balanced and technically demanding environment than in previous years.