A passionate motorsport fan with a deep love for everything racing. From studying suspension setups to analyzing telemetry data at 3AM — if it involves speed, precision, and engineering, I'm in.
Eager to break into the industry through internships, Formula Student collaborations, and motorsport engineering conversations. Let's build something fast.
At its core, the undercut exploits a fundamental truth in F1: fresh tyres are dramatically faster than worn ones in their first few laps. When a car pits earlier than its rival, it immediately gains access to a tyre warm-up window — those first 2–3 laps where rubber generates peak grip before degrading into a more stable but slower plateau.
The mechanics are precise. A driver on fresh rubber can find anywhere from 1.5 to 3 seconds per lap over their rival still on older compounds. If the pit stop itself is clean — sub 2.5 seconds — and the in-lap is aggressive, a car emerging from the pits behind on track can re-emerge ahead on the road once the rival serves their own stop. Teams model this in real time using tyre deg curves, traffic forecasts, and safety car probability windows. The undercut isn't just a reaction — it's a premeditated ambush. When executed perfectly, as Mercedes did to Ferrari in the 2019 Bahrain GP, it's completely invisible to the casual viewer but devastatingly clinical to anyone watching the data.
Ground effect is perhaps the most elegant concept in motorsport engineering — generating downforce not by pushing air over a wing, but by accelerating it underneath the car. The principle stems from Bernoulli: as airflow speeds up through a narrowing channel between the car floor and the track surface, pressure drops. That low-pressure zone sucks the car toward the ground, creating grip without the drag penalty that wings impose.
F1's 2022 regulation reset brought venturi tunnels back after a 40-year ban. The underfloor now features two sculpted channels that act as inverted wings — each generating a controlled vortex at the outer edge to seal the low-pressure zone and prevent turbulent air from leaking in. The challenge is porpoising: at high speed, the downforce becomes so extreme that the floor is literally sucked into the ground, stalling the flow, reducing downforce, and bouncing the car violently before the cycle repeats at 10–15Hz. Teams spent the entire 2022 season fighting this phenomenon through floor geometry, ride height, and suspension stiffness — a reminder that the most powerful aerodynamic tools are also the hardest to tame.
Tyre degradation is the invisible hand that shapes every race strategy decision. It operates on two levels: wear, which is the physical loss of rubber from the tread surface, and thermal degradation, where excessive heat breaks down the polymer structure of the compound itself. The latter is far more dangerous — a tyre that has thermally degraded doesn't just get slower, it becomes unpredictable, losing mechanical grip suddenly rather than gradually.
The surface temperature window for peak Pirelli performance is extraordinarily narrow — roughly 10–15°C. Too cold and the rubber is glassy and slow. Too hot and the surface granulates, shedding tiny rubber balls that contaminate the racing line and create a vicious cycle of further overheating. Drivers manage this constantly: backing off under braking to reduce heat input, smoothing steering inputs to avoid lateral slip, and adjusting brake bias to shift load between axles. Race engineers model deg curves using real-time telemetry — monitoring tyre temperature across three zones, tread wear rates, and projected lap time drop-off — to calculate the precise lap at which a pit stop maximises strategic gain before performance falls off a cliff.
Wide-track slicks, towering airboxes, and the birth of true aerodynamic warfare. Lauda, Fittipaldi, and Stewart defined an era of raw speed before modern safety existed.
Screaming 19,000 RPM engines, Schumacher's dominance, and the most iconic sound in motorsport. An era that defined an entire generation of fans.
The most technically complex power units ever built. MGU-H, MGU-K, and energy recovery pushed engineering to its absolute limit — and sparked the EV revolution.
Istanbul Park in the wet. A masterclass from Hamilton on an intermediate tyre — one stop, lights to flag, lapping the entire field in conditions that swallowed everyone else whole. His 7th title sealed in the rain.
Mansell vs Senna. A 19-second pit stop deficit, a Williams vs McLaren chase through Silverstone's sweeping curves, and a last-lap pass into Chapel that left 150,000 fans on their feet. The greatest overtake on home soil.
Max Verstappen on a one-stop strategy, hunting down Hamilton in the closing laps at the Hungaroring — the tightest, most technical circuit on the calendar. A tactical chess match that rewarded the brave and punished the cautious.
The Green Hell. 20.8 km, 154 corners, unpredictable weather. No circuit on earth demands more respect from a driver or inspires more awe from a fan.
Le Mans. 24 hours. The Mulsanne Straight at night with headlights blazing at 320 km/h. The ultimate endurance experience and a pilgrimage for any motorsport fan.
The Temple of Speed. Tifosi in the grandstands, flat-out slipstreaming battles, and a history that bleeds motorsport. Italy at its most electric.
Nothing compares to the Lesmos at full chat. The cathedral of motorsport. Pure mechanical grip and bravery.
Raidillon in the wet is the ultimate engineering challenge. Camber, elevation, and commitment — all at once.
Maggotts, Becketts, Chapel. The best sequence in motorsport. You feel the downforce working before you see it.
130R flat. That's it. That's the dream. The intersection of courage and aerodynamic trust.
Open to internships, Formula Student collaborations, and motorsport engineering conversations.