The verdict from Gary Anderson regarding the actual 2026 Williams F1 car is both intriguing and revealing. After missing a private shakedown in Barcelona and unveiling a livery launch car that hardly represented the real thing, Williams has finally taken its 2026 Formula 1 vehicle for a spin at Silverstone during a filming day.
Coming into this season, Williams finds itself at a disadvantage, a situation that was not anticipated last year when the team opted to pause development on its 2025 car in order to be adequately prepared for this season.
In the world of Formula 1, the process of planning and manufacturing components has become just as critical, if not more so, than the time spent on design. This shift in focus is something that contributed significantly to Red Bull’s initial successes, as they were the first to understand that while innovative designs are essential, the ability to quickly translate those ideas into actual components is paramount; otherwise, they risk being overshadowed by newer concepts.
The delay in getting the new car ready puts Williams at a disadvantage in this regard. Missing the first three days of testing will undoubtedly have a ripple effect on their development throughout the season. The pressing question now is: just how significant will that negative impact prove to be?
Currently, we only have a single image to analyze, but we anticipate seeing much more when the car runs during the Bahrain test next week. Nevertheless, there is already a lot to unpack from this one snapshot. Let’s break down where the airflow structure begins to divert.
The front wing endplates feature a central horizontal fin, which is highlighted in an orange ellipse in the image. Below that, marked with a yellow ellipse, is a ramp located at the end of the footplate tunnel. This ramp is designed to enhance airflow through the tunnel, thereby improving the wing's performance.
On the opposite side of the car, I've similarly marked components to illustrate how the profile is intended to interact with the airflow. Notably, the outer ramp on the central vane is situated solely at the outboard end and sits directly above the lower ramp. Both features should ideally work in tandem, but their effectiveness will be influenced by the steering angle, potentially leading to inconsistencies due to varying corner radii.
Turning our attention to the front suspension, it remains interesting as the team has opted for a pullrod-operated system, marked in red in the image. It appears that they have increased the anti-dive characteristics, drawing parallels to the setup observed on the Aston Martin.
The forward leg of the top wishbone, shown in dark blue, has its inboard pick-up point mounted significantly high. In contrast, the rear leg, indicated in light blue, has its inboard pick-up point positioned lower. This configuration suggests a long rearward reach for the A-frame style wishbone, similar to what we noted with Aston Martin’s design.
Regarding the lower wishbone, I speculate that the forward leg, which I’ve highlighted in green, runs at an angle comparable to that of the top wishbone’s forward leg, which helps maintain sensible suspension geometry.
While I can't clearly identify the rear leg of the lower wishbone, if my assumption about the front leg's position is accurate, then the rear leg might attach to the chassis in the same vicinity as the rearward leg of the top wishbone. This is somewhat unconventional but could contribute to a reduction in weight within the chassis structure, provided it maintains adequate suspension geometry.
If my interpretation of the wishbone positioning is correct, then the track rod might correspond to the component highlighted in yellow. Notably, it appears to originate from behind the inboard mount position of the lower wishbone's forward leg and extends forward to the outboard point of the lower wishbone.
Given that the outboard pivot points for both the top and bottom wishbones are relatively centered on the wheel and upright assembly, this design choice seems necessary to achieve the required steering arm length in the upright assembly.
The radiator inlet, however, stands out as notably large compared to other designs we've seen this season. This leaves me questioning the rationale behind compromising the overall aerodynamic flow structure so early in the design process with such a substantial opening. I look forward to examining more side profiles to determine if this is effectively integrated with any new elements in that area.
The airbox intake, indicated in green with the roll bar structure in red passing through it, is also quite sizable. The combination of these two intake openings suggests that Williams is preparing to ensure sufficient cooling capacity for even the hottest race tracks.
For a mid-tier team like Williams that anticipates competing in heavy traffic throughout the race, having extra cooling capability can be beneficial. However, if too much aerodynamic performance is sacrificed in anticipation of this need, it may ironically lead to them spending more time in that very traffic they seek to avoid.
At this stage, it's too premature for a comprehensive analysis of Williams' design, especially with limited images available. Nonetheless, I am encouraged by the evolution in their front suspension layout. The geometry, which bears a resemblance to the innovative approaches Adrian Newey implemented at Aston Martin, should provide Williams with confidence that their design choices are founded on solid principles rather than impulsive ideas. Ultimately, the goal must be to push boundaries for valid reasons rather than simply for the sake of innovation.
As we eagerly await the Bahrain testing, it’s time to see what surprises and strategies teams have prepared for the upcoming season.
