Numerical simulations assess aerodynamic forces in a formula student car, indicating improved tyre management and performance.
We perform numerical simulations to analyze the aerodynamics of a formula student car during cornering. Two different cornering conditions are considered, corresponding to two different corner radii, Rc: Rc = 9.125 m and Rc = 22 m. We show that the presence, on the car, of large surface elements – like endplates and sharkfin – is crucial to increase side aerodynamic forces. The larger the side aerodynamic forces, the smaller the side forces on the tyres, and therefore the smaller the tyre wear (better tyre management) or, alternatively, the larger the cornering speed (i.e. better performances, keeping the tyre wear constant). In addition, we also show that, for the cornering conditions considered here, the overall downforce reduces down to -25%, while the overall drag coefficient increases up to +10%. We provide explanations of the modified performances of the car during cornering via a detailed analysis of the flow field structure.
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Balasko et al. (2025) studied this question.
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