The 2026 FIA Formula One World Championship represents the most profound technical, sporting, and regulatory metamorphosis in the history of Grand Prix racing. Not since the inception of the World Championship in 1950 has the sport simultaneously overhauled its aerodynamic philosophy, internal combustion architecture, electrical deployment parameters, and chemical fuel composition. As the paddock embarks on the mandatory summer shutdown following the Hungarian Grand Prix—the eleventh round of a gruelling twenty-four-race calendar—the industry has sufficient telemetry and competitive data to evaluate the efficacy of these radical changes.

The primary objective of the 2026 regulations was to ensure the sport’s long-term automotive relevance while dramatically improving the racing spectacle. The Fédération Internationale de l’Automobile (FIA) mandated a shift toward 100% advanced sustainable fuels, a true 50/50 power split between internal combustion and electrification, and a “nimble car” aerodynamic concept utilizing active aerodynamics. Halfway through the season, the grid has witnessed a dramatic reshuffling of the competitive hierarchy. Mercedes AMG Petronas has capitalized on the chaos, propelling rookie prodigy Andrea Kimi Antonelli to the top of the Drivers’ Championship, while Scuderia Ferrari and McLaren have emerged as formidable challengers. Red Bull Racing, the dominant force of the previous era, has suffered a precipitous decline as they grapple with the thermodynamic and aerodynamic complexities of the new rules.

However, this transition has not been seamless. The sheer complexity of the new power units and software-defined chassis has triggered severe unintended consequences. Unpredictable energy depletion, highly dangerous speed differentials, and devastating “cyber-physical” electrical failures have left engineers scrambling and drivers deeply frustrated. This comprehensive mid-season report provides an exhaustive, peer-level analysis of the technical paradigm shift, the ensuing thermodynamic and aerodynamic crises, the mid-season competitive dynamics, and the unprecedented regulatory equalizers shaping the future of the 2026 championship.

The Technical Paradigm: Engineering the 2026 Machine

To decode the competitive order of the 2026 season, a granular understanding of the interconnected regulatory frameworks is essential. The FIA’s approach dismantled the heavy, ground-effect-dependent cars of the 2022–2025 cycle, replacing them with a framework that prioritizes efficiency, agility, and dynamic adaptability.

The “Nimble Car” Geometry and Mass Reduction

The physical footprint of the Formula 1 car has been deliberately constrained. The maximum wheelbase has been shortened by 200mm to 3,400mm, while the maximum overall width has been reduced by 100mm to 1,900mm. The maximum floor width has also been reduced by 150mm. These geometric constraints directly influence the polar moment of inertia, resulting in vehicles with a sharper yaw response and greater agility in low-speed technical sectors.

Furthermore, the FIA targeted a substantial reduction in mass. The minimum weight limit has been lowered by 30kg, setting the new baseline at 768kg. This is calculated based on an estimated 722kg for the car and driver, plus 46kg for the tires. Achieving this weight reduction while adhering to increasingly stringent safety homologation standards—such as the roll-hoop vertical impact test increasing from 16G to 20G, and the introduction of a novel two-stage front impact structure—has forced teams to utilize advanced composite weaves and highly optimized structural designs.

However, this mechanical agility is counterbalanced by a dramatic reduction in aerodynamic grip. The overall downforce has been slashed by an estimated 15% to 30%, primarily due to the removal of the deep ground-effect floor tunnels and the implementation of a partially flat floor with a simplified, smaller rear diffuser. Drag has similarly been reduced by 40%-55%, fundamentally altering the aerodynamic efficiency parameters.

Active Aerodynamics: Deconstructing X-Mode and Z-Mode

The defining aerodynamic feature of the 2026 regulations is the introduction of full-time active aerodynamics, which completely replaces the Drag Reduction System (DRS) utilized since 2011. The system requires both the front and rear wings to dynamically adjust their angles of incidence depending on the car’s track position, serving as an efficiency tool rather than a proximity-based overtaking aid.

The active aero operates in two primary states:

• Z-Mode (Corner Mode): The default high-downforce configuration. The three-element active rear wing and the two-element active front wing maintain a steep angle of attack, maximizing aerodynamic grip and vehicle stability during braking, corner entry, and apex negotiation.
• X-Mode (Straight Mode): On designated straightaways, drivers activate this low-drag configuration. The active elements on both the front and rear wings simultaneously flatten, thereby reducing aerodynamic drag and increasing top speed while improving overall energy efficiency.

The necessity of an active front wing was discovered during the FIA’s early simulation phases. If a car were to shed 40% of its rear drag without a corresponding reduction in front downforce, the aerodynamic centre of pressure would shift forward violently. This extreme forward aero balance would render the rear axle dangerously unstable during high-speed deceleration. By actuating both wings synchronously, the cars maintain a stable, predictable aerodynamic balance. In wet or low-grip conditions, race control can mandate “partial active aero,” wherein only the front wing flattens to reduce drag, while the rear wing remains in Z-Mode to ensure critical rear-end stability.

The 50/50 Power Unit Revolution

The internal combustion engine (ICE) remains a 1.6-litre, 90-degree turbocharged V6, but its operational parameters have been severely restricted. The FIA abandoned mass-based fuel flow limits in favour of an energy flow limit, capped at 3,000 Megajoules (MJ) per hour. This limitation suppresses the ICE output to approximately 400kW (536 bhp), representing a 35% drop in thermal performance compared to the previous generation.

To offset this reduction and to entice global automotive manufacturers toward Formula 1’s electrification goals, the hybrid infrastructure was radically expanded. The highly complex Motor Generator Unit-Heat (MGU-H), which harvested waste thermal energy from the turbocharger, has been entirely outlawed. The energy recovery burden now falls exclusively on the Motor Generator Unit-Kinetic (MGU-K) connected to the rear axle. The MGU-K’s maximum power output has nearly tripled, surging from 120kW to an immense 350kW (approximately 470 bhp).

This architecture creates a genuine 50/50 power split between the combustion engine and the electrical system. To sustain this massive electrical deployment, the regenerative capacity during braking and deceleration has been doubled; teams can now harvest 8.5-9 MJ of energy per lap.

The Transition to 100% Advanced Sustainable Fuels

In 2026, the use of fossil-derived racing fuels has been unconditionally prohibited. All competitors must utilize 100% “drop-in” sustainable fuels composed entirely of Advanced Sustainable Components (ASCs). These components must be sourced from non-food biomass, municipal waste, or synthetic e-fuels produced by combining captured atmospheric carbon dioxide with green hydrogen.

The FIA has implemented the most rigorous environmental auditing process in motorsport history. Crucially, the regulations ban the practice of “mass balancing,” ensuring absolute supply chain traceability and preventing manufacturers from mixing fossil and renewable matter during production. The fuel blends must deliver a minimum greenhouse gas savings of 65% and adhere to the “5/30 Rule,” which requires that at least 30% of the hydrocarbon content be components present at concentrations below 5% to prevent excessive use of hazardous chemicals such as toluene.

Because the regulations limit fuel energy flow rather than mass flow, fuel suppliers (such as Petronas, Shell, and Aramco) have pursued intensive development to maximize energy density. Synthesizing these molecules enables optimized combustion despite the newly mandated lower compression ratio of 16:1. Thermodynamically, the advanced sustainable fuels burn more fully, resulting in lower combustion temperatures, which reduce nitrous oxide emissions but alter the heat-rejection requirements of the power unit.

The Cyber-Physical Crisis: Energy Starvation and Software Fragility

While the 2026 regulations represent a pinnacle of theoretical engineering, their real-world application has exposed severe, systemic vulnerabilities. The paddock is grappling with an energy management crisis that threatens both the sporting integrity and the physical safety of the competitors.

The Mathematics of “Super Clipping”

The fundamental flaw in the 2026 power unit formula lies in a mathematical discrepancy between power output and energy storage capacity. While the MGU-K can deploy 350kW of power, the Energy Store (battery) capacity remains strictly limited to 4 Megajoules (MJ).

Applying basic physics (), a 350kW deployment will drain a 4 MJ battery entirely in just 11.43 seconds. On high-speed circuits characterized by prolonged full-throttle sectors, such as the Circuit de Spa-Francorchamps or the Suzuka Circuit, this limitation is catastrophic. Midway down a long straight, the electrical energy is exhausted. The 350kW boost abruptly ceases, leaving the car propelled solely by the 400kW ICE. This phenomenon is historically known as “clipping.”

In 2026, this has escalated into “super clipping.” Because the cars produce significantly less aerodynamic drag in X-Mode, they reach their top speeds much earlier on the straights. When the battery depletes, the aerodynamic drag—even in its reduced state—overwhelms the standalone 400kW ICE. Consequently, the car physically decelerates while the driver is still at full throttle. At the Belgian Grand Prix, telemetry revealed that cars lost up to 50 km/h of speed at the end of the Kemmel Straight.

To mitigate this, drivers are forced to engage in extreme “lift-and-coast” maneuvers, lifting off the throttle hundreds of meters before braking zones to allow the MGU-K to recharge. Corners that were previously taken flat-out are now treated as regenerative “charging stations,” severely compromising lap times. Qualifying times at Spa were up to four seconds slower than those of the 2025 ground-effect cars, with race pace suffering a five-second deficit.

Safety Implications and the Suzuka Incident

The severe and unpredictable speed differentials caused by super clipping have introduced a grave safety hazard. When a following car maintains electrical deployment while the leading car enters a super clipping phase, the closing speeds can be lethal.

This danger was starkly illustrated during the Japanese Grand Prix. Haas’s Oliver Bearman suffered a severe crash at the high-speed Spoon curve. Bearman approached the corner in Boost mode, while Alpine’s Franco Colapinto, driving directly ahead, entered a severe super-clipping phase to regenerate energy. The sudden, untelegraphed 70 km/h speed differential left Bearman with nowhere to navigate, resulting in a high-impact collision. This incident highlighted the inherent dangers of vehicles rapidly losing propulsion on high-speed aerodynamic sweeps.

Software Dictation and Cyber-Physical Vulnerability

The need to perfectly synchronize the 400kW ICE, the 350kW MGU-K, and the millisecond actuation of the active aerodynamic flaps has placed an unprecedented burden on the Control Electronics (CE). The 2026 Formula 1 car is fundamentally a software-defined vehicle, making it highly susceptible to cyber-physical failures.

This vulnerability was exposed during the Chinese Grand Prix in Shanghai. McLaren, fielding a highly competitive MCL40, suffered a devastating double Did Not Start (DNS). Both Lando Norris and Oscar Piastri experienced terminal electrical failures on the power unit side prior to the formation lap¹⁰. McLaren Team Principal Andrea Stella confirmed the issue lay in the high-voltage electrical management systems provided by Mercedes, describing a validation gap in which the software triggered irrecoverable fault codes, forcing the cars into a high-voltage quarantine protocol.

Similarly, at the Belgian Grand Prix, Mercedes suffered a software glitch where a launch-related deployment parameter remained active long after Turn 1. The software erroneously drained the battery excessively early in the lap, leaving George Russell and other Mercedes-powered competitors severely compromised on energy management down the Kemmel Straight. The frustration within the paddock is palpable, with defending champion Max Verstappen describing the 2026 energy management procedures as an unpredictable “jungle” where the driver is often relegated to a passenger of the algorithmic calculations.

Pirelli’s 2026 Tire Paradigm: Narrower, Lighter, Hotter

To complement the lighter, smaller chassis, Pirelli developed a completely redesigned 18-inch tire specification. The 2026 rubber is 25mm narrower at the front and 30mm narrower at the rear, with the overall external diameter reduced from 720mm to between 705mm and 710mm.

These dimensional reductions serve two primary functions: they reduce the aerodynamic wake generated by the wheels and reduce the vehicle’s total unsprung mass by 1.6 kg. This lower rotational inertia significantly improves the car’s agility and its ability to change direction. However, the smaller contact patch directly diminishes mechanical grip.

This places an immense premium on tire thermal management. The narrower rear tires must absorb and transmit the brutal 350kW torque spikes generated by the expanded MGU-K out of low-speed traction zones. Conversely, when the car transitions from X-Mode (low drag) on a straight into a heavy braking zone, the sudden re-engagement of Z-Mode (high downforce) violently shifts the aerodynamic load onto the front axle, inducing rapid temperature spikes.

To help teams manage these severe thermal gradients, the FIA granted “rim freedom,” allowing engineers to design bespoke rims that capture brake heat or optimize airflow to keep the rubber within its delicate operating window. Pirelli has also simplified its dry compound allocation, removing the softest C6 compound, leaving a five-compound range (C1 through C5). This ensures larger performance deltas between the compounds, forcing greater strategic variance on the pit wall.

Overtaking Dynamics: The Tactics of Boost and Override

While the energy crisis has drawn widespread criticism, the 2026 regulations have undeniably altered the anatomy of overtaking. The eradication of DRS forced the adoption of two new driver-activated electrical tools, transforming racecraft into an exercise in high-speed energy budgeting.

1. Boost Mode: A configurable, driver-operated energy deployment tool from the Energy Recovery System (ERS). Provided the battery holds sufficient charge, the driver can deploy maximum combined power from the ICE and MGU-K at any point on the circuit, serving as both an offensive weapon and a defensive shield.
2. Overtake Mode (Manual Override): To prevent processional racing, the regulations mandate that a leading car’s MGU-K deployment automatically tapers off above 290 km/h, reaching zero electrical assistance by 355 km/h. However, if a chasing car crosses a detection point within 1 second of the leader, it unlocks “Overtake Mode.” This grants the chasing driver an uninterrupted 350kW of electrical thrust up to 337 km/h, plus an extra 0.5 MJ of energy allocation for that lap.

The statistical impact on overtaking has been profound. While narrow, slow-speed circuits like Monaco remain processional, venues with heavy braking zones and long straights have seen explosive action. The 2026 Australian Grand Prix witnessed an astonishing 120 overtakes, more than double the highest metric recorded in any single race during the 2025 season.

However, the location of these overtakes has shifted. Because cars reach their top speeds mid-straight before clipping takes effect, passes are frequently executed well before the braking zones. Drivers are deploying Boost out of slow-speed corners to deliberately break the one-second detection barrier, thereby denying the following car access to Overtake Mode. This has created a highly tactical, multi-layered battle of energy conservation and sudden deployment.

Mid-Season Race Analysis: The Shifting Balance of Power

The first eleven rounds of the 2026 World Championship have produced deeply compelling sporting narratives, characterized by Mercedes’ dominance, Ferrari’s resurgence, McLaren’s mid-season leap, and Red Bull’s rapid descent.

Table 1: 2026 Mid-Season Driver and Constructor Standings

(As of July 26, 2026 – Post-Hungarian Grand Prix)

Rank	Driver	Team	Points	Wins
1	Andrea Kimi Antonelli	Mercedes	219	6
2	Lewis Hamilton	Ferrari	169	1
3	George Russell	Mercedes	160	2
4	Charles Leclerc	Ferrari	138	1
5	Lando Norris	McLaren	128	1
6	Max Verstappen	Red Bull Racing	109	0
7	Oscar Piastri	McLaren	92	0
8	Isack Hadjar	Red Bull Racing	68	0
9	Liam Lawson	Racing Bulls	43	0
10	Pierre Gasly	Alpine F1 Team	42	0

Rank	Constructor	Points	Wins
1	Mercedes AMG Petronas	379	8
2	Scuderia Ferrari	307	2
3	McLaren	220	1
4	Red Bull Racing	177	0
5	Racing Bulls	66	0
6	Alpine F1 Team	61	0

The Mercedes Supremacy and the Rise of Antonelli

Mercedes AMG Petronas has deciphered the 2026 technical regulations with devastating precision. The W17 chassis perfectly harmonizes the transition between X-Mode and Z-Mode, while their High Performance Powertrains (HPP) division delivered a highly efficient energy management algorithm that minimizes the catastrophic effects of super clipping.

The defining story of the season is the meteoric ascension of Andrea Kimi Antonelli. The Italian prodigy has dominated the grid, claiming six victories in the opening eleven rounds (China, Japan, Miami, Canada, Monaco, and Belgium). Antonelli’s ability to flawlessly execute lift-and-coast maneuvers while maintaining raw pace has left veteran teammates and rivals struggling to match his efficiency.

His victory at the Canadian Grand Prix was a microcosm of the Mercedes inter-team battle. Following a mixed-weather start in which McLaren’s intermediate-tire gamble failed, Antonelli and George Russell engaged in a ruthless, wheel-to-wheel duel for the lead. The battle featured intense late braking lockups and controversial chicane cutting, demonstrating Antonelli’s refusal to yield to his more experienced teammate. The duel ended on Lap 30 when Russell suffered a sudden, terminal power unit failure, granting Antonelli a clear path to victory and a massive championship advantage.

George Russell has demonstrated immense raw speed, securing victories in the Australian Grand Prix opener and the Austrian Grand Prix. However, his championship bid has been torpedoed by horrific reliability. Beyond the Canadian DNF, Russell suffered a devastating anti-stall mechanical failure on the grid in Hungary, dropping him to 20th, and fell victim to the aforementioned Mercedes software glitch in Belgium. Antonelli’s 59-point lead over Russell firmly establishes a new hierarchy within Brackley.

Ferrari’s Renaissance Under Vasseur

Scuderia Ferrari sits a comfortable second in the Constructors’ Championship. Team Principal Fred Vasseur’s methodical restructuring has birthed the SF-26, a machine that prioritizes aerodynamic efficiency and tire preservation, curing the severe degradation issues that plagued Maranello in recent years.

The integration of Lewis Hamilton has been a resounding success. Hamilton sits second in the Drivers’ Championship, having secured a highly emotional victory at the Spanish Grand Prix in Barcelona. Hamilton’s legendary tire management has proven perfectly suited to the lift-and-coast demands of the 2026 formula. He chased down Verstappen for a brilliant second-place finish in Canada with a daring outside move on Lap 62, and capitalized on Mercedes’ software errors in Belgium to secure crucial points.

Charles Leclerc has matched Hamilton’s pace, securing a vital victory at the British Grand Prix in Silverstone, capitalizing on Mercedes’ strategic missteps to claim Ferrari’s 250th Grand Prix win. Ferrari’s operational execution has been remarkably robust, establishing them as the primary threat to Mercedes’ dominance.

McLaren’s Upgrades and the Hungarian Masterclass

McLaren’s season began in disaster with the highly publicized cyber-physical double-DNS in China, leaving them severely on the back foot. However, under Team Principal Andrea Stella, the team executed a flawless mid-season development program.

The culmination of this effort was the Hungarian Grand Prix. McLaren introduced a comprehensive upgrade package that closely aligned with their wind tunnel simulations. Lando Norris utilized the upgraded MCL40 to secure pole position by a razor-thin 0.012 seconds over Lewis Hamilton, before executing a dominant, flawless race. Despite losing the lead to teammate Oscar Piastri at the start, Norris retook control during the pit stop phases and cruised to a 15-second victory over Verstappen, proving that McLaren possesses the aerodynamic downforce to dominate high-grip, low-speed circuits.

Unfortunately, Oscar Piastri’s season has been plagued by misfortune. A ten-second penalty for a collision with Alex Albon in Canada and a heartbreaking gearbox failure while running in a podium position in Hungary have artificially suppressed his points tally, leaving McLaren trailing Ferrari in the standings.

Red Bull’s Freefall and Verstappen’s Frustration

Red Bull Racing, transitioning to the Ford-partnered power unit, has endured a gruelling reality check. The chassis has struggled to cleanly integrate the massive 350kW MGU-K delivery, leading to severe rear tire degradation and poor low-speed traction.

Max Verstappen has driven heroically to extract performance from a fundamentally unbalanced car. He secured hard-fought second-place finishes in Austria and Hungary, along with a podium in Canada, bringing the team to 177 points. However, Verstappen’s public frustration has boiled over; he labelled the RB22 “uncontrollable” and heavily criticized the 2026 regulations as a “jungle” of software management. Teammate Isack Hadjar has proven a reliable secondary scorer, accumulating 68 points and a strong fifth place in Canada, but Red Bull is fundamentally detached from the championship battle.

The Midfield Squeeze

Behind the top four, the midfield battle is intense. Alpine, under the controversial stewardship of Executive Advisor Flavio Briatore, has benefited from its switch to customer Mercedes power units. Pierre Gasly has been a consistent scorer, while sophomore Franco Colapinto delivered a stellar drive to seventh place in Miami, proving the team’s chassis upgrades are functional. Briatore’s decision to retain Colapinto for 2026 has provided much-needed stability to the Enstone squad.

Racing Bulls have shown flashes of brilliance with Liam Lawson and Arvid Lindblad, particularly on high-speed circuits where they can optimize their active aero mapping. Meanwhile, Audi and the newly entered Cadillac Formula 1 Team (fielding Valtteri Bottas and Sergio Perez) are treating 2026 as a developmental baseline. Cadillac’s MAC-26 chassis has shown aerodynamic potential, but it has been severely hindered by Honda’s ongoing electrical deployment deficits and severe vibrational issues that destroy the battery packs.

The ADUO Mechanism: Reshaping the Second Half

Recognizing that the immense complexity of the new power units could lead to unbridgeable performance disparities, the FIA instituted the Additional Development and Upgrade Opportunities (ADUO) framework.

ADUO is a cost-cap relief and development mechanism, not a Balance of Performance (BoP) tool. The FIA monitors the Internal Combustion Engine (ICE) Performance Index for all manufacturers throughout the season, calculating input shaft torque and engine speed while explicitly ignoring the efficiency of the MGU-K electrical deployment. If a manufacturer’s ICE falls a certain percentage behind the benchmark, they are granted permission to introduce specific hardware upgrades outside the standard homologation freeze, alongside corresponding increases to their $215 million cost cap allowance.

Table 2: FIA ADUO Allowances for 2026

ICE Deficit vs. Benchmark	Allowance per Period	Homologation Upgrades
2% – 4%	Up to $3.0m	1 in-season + 1 following season
4% – 6%	Up to $4.65m	2 in-season + 2 following season
6% – 8%	Up to $6.35m	2 in-season + 2 following season
8% – 10%	Up to $8.0m	2 in-season + 2 following season
10%+	Up to $11.0m (+ $8m advance)	2 in-season + 2 following season

Following the Canadian Grand Prix, the FIA concluded its first ADUO review period. The findings sent shockwaves through the paddock. The data established the Red Bull Ford Powertrains ICE as the most powerful combustion engine on the grid.

Because the ADUO metric strictly measures ICE output and ignores overall hybrid energy management, Mercedes and Ferrari’s superiority in electrical deployment did not preclude them from receiving assistance.

• Mercedes was deemed to be between 2% and 4% behind the Ford ICE benchmark. Consequently, they were granted one in-season homologation upgrade and an additional $3.0 million in cost cap relief.
• Ferrari fell into the 4% to 6% deficit bracket, granting them two in-season upgrades and $4.65 million in financial headroom.
• Honda (powering Aston Martin) reportedly suffers from an even greater deficit, exacerbated by severe vibration issues that damage their energy stores.

This ruling guarantees that the second half of the 2026 season will witness a furious development war. Mercedes and Ferrari will deploy their FIA-sanctioned combustion upgrades in a bid to close the thermal horsepower gap to Red Bull Ford, potentially extending their overall performance advantage to insurmountable levels.

Conclusion: A Championship Poised on a High-Voltage Edge

As the 2026 Formula 1 season enters its summer hiatus, the sport finds itself navigating the treacherous waters of a technological revolution. The FIA has largely succeeded in its macro-objectives: the cars are physically smaller and more agile, the integration of 100% advanced sustainable fuels proves the viability of internal combustion in a carbon-neutral future, and the active aero and MGU-K override systems have catalyzed overtaking on modern circuit layouts.

However, the micro-engineering realities have created a remarkably fragile ecosystem. The reliance on software to manage the 50/50 power split and coordinate the active aerodynamic flaps has led to unprecedented cyber-physical vulnerabilities and severe energy clipping, fundamentally altering the nature of race craft.

Looking toward the second half of the season, the championship narrative is far from resolved. Andrea Kimi Antonelli holds a commanding lead, but the impending ADUO engine upgrades for Mercedes and Ferrari threaten to entirely reset the power unit hierarchy. If Ferrari can unlock the extra 4% of thermal efficiency permitted by their ADUO allocation, Lewis Hamilton and Charles Leclerc possess the tire management skills to challenge Antonelli’s reign. Similarly, McLaren’s Hungarian Grand Prix masterclass proves the MCL40 is now a genuine, high-downforce front-runner capable of dictating race pace.

The 2026 regulations have undoubtedly reshuffled the deck, substituting traditional aerodynamic limitations for a high-stakes, high-voltage game of energy chess. The team that best optimizes its software algorithms, manages the severe thermal degradation of the narrower Pirelli rubber, and seamlessly integrates its ADUO upgrades will ultimately secure the championship in Abu Dhabi.

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55. Norris ends wait for F1 win in Hungary as Antonelli stretches championship lead, https://apnews.com/article/hungary-f1-norris-leclerc-antonelli-hamilton-9d86bf77bec440e430ad2336d2a4963b
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58. Cadillac’s Sergio Perez fears Aston Martin’s Hungary B-spec will “close the gap”, https://www.motorsport.com/f1/news/cadillac-sergio-perez-fears-aston-martins-hungary-close-the-gap/10841066/
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