The return to competitiveness at the Hungarian Grand Prix and the best result of the 2025 Formula 1 season so far should be reason enough for Aston Martin to celebrate. However, somewhat paradoxically, the excellent performance delivered by the British team at the Hungaroring also shed light on the fundamental weaknesses of the AMR25—especially its lack of aerodynamic load. Here’s why this weekend in Budapest revealed both progress and problems.
Without a doubt, the Hungarian Grand Prix weekend offered a wealth of insights, not only concerning the battle at the front of the grid but also within the midfield, which has become increasingly competitive and unpredictable. Among the surprises of the weekend was the “rebirth” of Aston Martin. Just one week after starting from the back row at Spa-Francorchamps, the team secured its best result of the year in Budapest.
Spanish driver Fernando Alonso crossed the finish line in fifth place, while Canadian teammate Lance Stroll brought the second AMR25 home in seventh. The result delivered a valuable double points finish for the Silverstone-based outfit, which now sits sixth in the Constructors’ Championship, trailing Williams by just eighteen points. Although the 2025 season is seen more as a transitional year for Aston Martin, the team remains intent on finishing the campaign with pride and competitive spirit.
And here lies the paradox: the team’s strongest weekend of the season has underlined exactly what the AMR25 lacks in order to be consistently competitive across a broader range of circuits—namely, sufficient aerodynamic downforce. In Formula 1, downforce remains one of the most decisive factors for car performance, and in this regard, the Hungaroring provided a stark contrast to recent circuits.
Unlike tracks that require medium- or low-downforce setups, the Hungarian circuit demands high levels of aerodynamic load, especially given its twisty nature and lack of long straights. To meet this challenge, Aston Martin introduced a new high-downforce front wing specifically designed for this type of layout. It also helped rebalance the car, as teams typically run a heavily loaded rear wing configuration at the Hungaroring. This update proved to be a game-changer for the AMR25.
However, a single front wing is not enough to fully explain the leap in performance. The team also reverted to the floor introduced at the Imola Grand Prix, abandoning the one brought more recently for the British Grand Prix at Silverstone. That newer floor had been intended as the team’s final major technical upgrade of the season, except for any minor circuit-specific changes.
Yet, neither the new wing nor the return to the Imola-spec floor fully accounts for Aston Martin’s sudden turnaround within just seven days. The real explanation lies in the characteristics of the Hungarian track—not just in the layout of the corners, but also in the much higher aerodynamic load it demands compared to other circuits, particularly in terms of wing configuration.
As Mike Krack, Chief Trackside Officer for Aston Martin, acknowledged, “Normally, you don’t go from the back of the grid to being the strongest midfield team in one week. We need to be realistic. We’ve had very difficult races before, not just at Spa. It doesn’t mean we’ve made a radical change in direction. I think it’s also a matter of circumstances.”
Looking back at the season, as analyzed in earlier races, Aston Martin’s engineers made strides over the winter in improving the drivability of the car. However, these gains came at the expense of aerodynamic load. To compensate for this shortfall, the team often had to fit higher-downforce wings than their rivals, a decision that negatively impacted top speed and compromised performance on circuits with long straights.
The updated floor introduced at the Imola Grand Prix helped improve the aerodynamic load generated by the floor itself, but it was not always enough to make the AMR25 competitive against stronger rivals. The Belgian Grand Prix at Spa provided a clear illustration: during the dry sprint race, Aston Martin opted for a low-downforce setup to gain speed on the straights, which resulted in a midfield qualifying position. But when the team switched to high-downforce wings for the wet qualifying session on Saturday, the car’s limitations became evident.
In those conditions, the AMR25 lacked the straight-line speed needed to defend on the long straights and simultaneously failed to generate enough downforce in the second, more technical sector. This led to a back-row start, clearly exposing the car’s aerodynamic vulnerabilities.
In contrast, Hungary presented a completely different scenario. With its relatively short straights, top speed was less critical. Moreover, the fact that all teams were forced to adopt high-downforce wing configurations significantly reduced Aston Martin’s disadvantage in this area.
This situation created a double benefit for the British team. Not only was the performance gap narrowed, but the AMR25 was finally able to fully exploit the downforce generated by its wings. This allowed the car to operate within a more effective performance window. For the first time in several races, Aston Martin showed consistent competitiveness throughout the entire weekend—not just in the first free practice sessions, when the team typically runs more engine power—but across qualifying and the race as well.
The outstanding qualifying result, with both Aston Martin cars locking out the entire third row of the grid, laid the foundation for a strong race. Prior to the race, there were concerns that the AMR25 might struggle with tyre degradation, especially over long stints, which has been one of its weaker areas.
However, Aston Martin’s strategy team and Fernando Alonso managed the race pace perfectly. They successfully kept the chasing pack closely bunched behind the Spanish driver, preventing any of their midfield rivals from attempting an undercut or switching to an alternative strategy. It was a flawless strategic effort—critical in Budapest, where strong results can often yield more points than consistency alone, due to the nature of the circuit and the high likelihood of track position dictating the outcome.
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