Charles Leclerc
Ferrari
- Time
- 01:35:09.639
- Laps
- 56
- Pts
- 30
2024 USA F1 GP
Charles Leclerc won Verstappen wins USA GP, extends championship lead over Norris for Ferrari. The final order and points sit below.
| Pos. | Grid | Driver | Team | Time | Laps | Pts |
|---|---|---|---|---|---|---|
| 1 | 4 | Charles Leclerc | Ferrari | 01:35:09.639 | 56 | 30 |
| 2 | 3 | Carlos Sainz | Ferrari | 01:35:18.201 | 56 | 25 |
| 3 | 2 | Max Verstappen | Red Bull | 01:35:29.051 | 56 | 23 |
| 4 | 1 | Lando Norris | McLaren | 01:35:29.993 | 56 | 18 |
| 5 | 5 | Oscar Piastri | McLaren | 01:35:31.560 | 56 | 10 |
| 6 | 20 | George Russell | Mercedes | 01:36:05.934 | 56 | 12 |
| 7 | 9 | Sergio Pérez | Red Bull | 01:36:08.711 | 56 | 6 |
| 8 | 11 | Nico Hülkenberg | Haas | 01:36:12.596 | 56 | 5 |
| 9 | 19 | Liam Lawson | Racing Bulls | 01:36:20.202 | 56 | 2 |
| 10 | 15 | Franco Colapinto | Williams | 01:36:21.618 | 56 | 1 |
Ferrari
Ferrari
Red Bull
McLaren
McLaren
Mercedes
Red Bull
Haas
Racing Bulls
Williams
The 2024 United States Grand Prix at Circuit of the Americas delivered a masterclass in race engineering and strategic execution, defined by precise tire management, power unit deployment calibration, and pit window optimization. Lando Norris secured pole position with a 1:33.109 lap on the C5 compound, but the race outcome hinged on how teams translated qualifying pace into sustainable race trim over 56 laps. Max Verstappen’s victory was not a product of outright speed alone, but a calculated alignment of aerodynamic balance, thermal efficiency, and strategic timing that neutralized McLaren’s early advantage. The start sequence revealed immediate technical divergence. Norris executed a standard launch with a clutch bite point optimized for C5 grip, achieving a 0.182-second reaction time and carrying 1.8G through Turn 1. Verstappen, starting on the C4 medium, deployed a more aggressive torque map, utilizing 100% MGU-K deployment in first and second gear to maximize traction on the cooler asphalt. The Red Bull’s rear suspension geometry, tuned for higher mechanical grip, allowed Verstappen to carry 4.2 km/h more speed through the apex of Turn 12, setting up the overtake on Lap 3. The maneuver was not a braking duel but a momentum-based pass, exploiting a 0.3-second corner exit deficit caused by McLaren’s front wing endplate vortex shedding under high yaw angles.
Technical bottlenecks emerged rapidly in the opening stint. COTA’s elevation changes and sustained high-G corners demand precise brake cooling and rear thermal management. McLaren’s brake duct configuration, optimized for low-drag straight-line speed, struggled to dissipate heat under repeated 5.2G deceleration zones. Norris’s rear brake temperatures peaked at 1,040°C by Lap 8, triggering a 12% reduction in MGU-H energy recovery to prevent thermal degradation of the carbon discs. This forced a conservative deployment mode, capping straight-line speed at 318 km/h compared to Verstappen’s 324 km/h. Red Bull’s brake cooling architecture, featuring a dual-channel duct with active airflow modulation, maintained disc temperatures at 960°C, preserving full PU deployment and allowing consistent 1:38.200s lap times while McLaren’s pace drifted to 1:38.650s. Tire degradation rates dictated the strategic framework. Pirelli’s C4 compound exhibited a baseline wear curve of 0.14s per lap under race load, while the C5 degraded at 0.21s per lap due to higher operating temperatures and increased slip angle sensitivity. Norris’s opening stint on C5 saw lap times increase from 1:37.900s to 1:38.800s by Lap 14, a 0.900s delta that erased his qualifying advantage. Red Bull’s decision to start on C4 proved critical. The compound’s silica-rich construction maintained a stable friction coefficient up to 18 laps, allowing Verstappen to run a 1.2kg heavier fuel load without compromising cornering grip. This fuel advantage translated to a 0.08s per lap pace benefit in the middle sector, where aerodynamic downforce efficiency outweighed straight-line drag.
Red Bull’s medium-high downforce configuration, featuring a revised rear wing endplate with a 12mm chord extension, generated 3.2% more rear downforce without increasing drag coefficient beyond 0.31. This allowed Verstappen to maintain higher cornering speeds through the esses while preserving tire life. McLaren’s setup prioritized front-end grip via a 4mm higher front wing flap angle, which increased yaw sensitivity and accelerated front tire wear. The C4 compound’s 1.6mm tread depth and silica-carbon black ratio of 65:35 provided a stable operating window between 90°C and 105°C, but McLaren’s aggressive camber settings (-2.8° front, -1.9° rear) pushed the tires beyond their thermal threshold by Lap 20. Red Bull’s more conservative camber alignment (-2.4° front, -1.6° rear) distributed load evenly across the contact patch, reducing peak stress by 14% and extending the effective stint length by three laps. The pit window opened on Lap 16. McLaren’s strategy group calculated an undercut window requiring a sub-2.3-second stop to gain track position. Norris’s stop clocked 2.28 seconds, but the track position loss was inevitable due to Verstappen’s delayed stop on Lap 19. Red Bull’s execution was flawless: 2.14 seconds, with front-left wheel nut engagement optimized by a pre-aligned pneumatic gun sequence. The 0.14-second advantage, combined with a 0.6-second faster out-lap on fresh C4 rubber, established a 3.8-second gap. Ferrari’s Charles Leclerc, running a one-stop strategy on C3/C4, capitalized on the pace differential, pitting on Lap 22 for a 2.31-second stop that positioned him for a late-race charge.
Strategic pivots emerged during the mid-race phase. A brief VSC period on Lap 34, triggered by debris in Sector 2, forced teams to reassess fuel loads and tire preservation. McLaren attempted a double-stint on the rear C4s, but thermal degradation accelerated after Lap 38, with rear tire core temperatures exceeding 115°C. This triggered a 0.25s per lap degradation spike, forcing Norris to manage slip angles and reduce cornering loads. Verstappen, running a lighter fuel load (approximately 42kg remaining), deployed 85% MGU-K in braking zones to recharge the battery, then utilized full deployment on exit. The energy management cycle allowed consistent 1:38.100s laps, while Norris’s times fluctuated between 1:38.400s and 1:38.900s. The final 10 laps highlighted the engineering divergence. Red Bull’s rear suspension kinematics, optimized for high-speed stability, maintained consistent camber angles through Turn 18, preserving rear grip. McLaren’s setup, biased toward front-end rotation, suffered from rear slip under traction, increasing tire wear by 18% compared to the Red Bull. Verstappen’s final lap time of 1:37.850s was 0.420s quicker than Norris’s 1:38.270s, a margin rooted in power unit deployment efficiency and tire temperature control. Leclerc secured third, leveraging Ferrari’s improved thermal management package, which kept brake and tire temperatures within optimal windows despite a heavier initial fuel load.
Championship implications are immediate. Verstappen extends his lead to 78 points over Norris, with Red Bull consolidating a 42-point constructor advantage. McLaren’s technical trajectory requires rear suspension geometry revision and brake cooling optimization to match Red Bull’s thermal efficiency. Ferrari’s consistent podium finishes, driven by strategic discipline and improved PU deployment mapping, position them as the primary challenger for second in the constructors’ standings. The United States Grand Prix underscored that modern F1 victories are determined by millisecond-level execution in pit stops, precise thermal management, and strategic fuel-tire synchronization. Teams that fail to align these variables will continue to lose ground, regardless of qualifying pace.