Verstappen and 100 Rivals: Inside the Race Red Bull Built for Itself

The timing screen showed P37 when Verstappen completed his first lap. Not P37 after a bad start — but P37 after passing 64 rivals in roughly two minutes and twenty seconds. Starting from P101 on a 101-entry grid, he erased nearly two-thirds of the task in just 3.5% of the race distance. That number made me pause longer than usual.

Because I have watched too many races like this. Not a Grand Prix. Not an FIA-sanctioned round. Just a Red Bull-owned karting event at Silverstone, with 100 rivals on the grid, run under an elimination format — pass a driver and they leave the circuit. Thirty laps or seventy-five minutes, whichever comes first. Verstappen finished in 14 laps, around 35 minutes, less than half his available time budget.

This is promotional content. No championship points, no scrutineering, no penalties. But two things deserve to be placed on the operating table: a rare window into a driver's pure pace once equipment variables are stripped out, and a safety pattern the organisers overlooked just as it emerged.

Let me start from the beginning.

CONTEXT: A RACE THAT IS NOT A RACE

Red Bull called it "the world's biggest go-kart race." Official name: "Max vs 100." A four-time world champion against one hundred rivals invited by the team that owns him. Location: a kart venue at Silverstone, on a roughly 2.5 km hybrid layout combining part of the British Grand Prix circuit with sections designed for karts.

The format was simple: any driver Verstappen passed was removed from the circuit immediately. His task was to erase all 100 rivals, as quickly as possible. Organisationally, this was a Red Bull intellectual property, streamed live on Disney+, widely covered on social media, and — this is the detail I noticed most — elevated to a front-page story by F1.com, the sport's own commercial media arm.

A team's private commercial event covered by the sport's own media as breaking news. That is not small. I'll return to it later.

According to the coverage, Verstappen had only "three or four laps" to learn the circuit, while his rivals had "a couple of practice days." That means he entered with a preparation deficit of roughly ten to one — his one, against their many. On an unfamiliar 2.5 km layout he had never driven.

The top three finishers behind him were: an F1 journalist, a YouTuber, and a Red Bull Ford Powertrains technician — the works engine unit Red Bull is preparing for the 2026 season. That is the single most important fact in the entire original article, and it sits buried near the end. I'll return to it in the Contrarian section.

And Racing Bulls driver Arvid Lindblad — from Red Bull's second team — appeared as event personnel, overseeing the challengers' practice sessions. A small detail worth noting: the team uses its junior driver as brand labour, and simultaneously as part of media training for its academy pipeline.

Before diving into numbers, I need to be clear: the original article does NOT state the year of the event. It only says it took place "a few days after Verstappen recorded a podium at the Spanish Grand Prix," on a Wednesday evening at Silverstone. No year. For an information product, a missing year is half the archival value. A professional sports journalist never lets that slip. But because this is promotional content written for weekly consumption, the reference frame is treated as self-evident. I record this as a red flag for independent verification, not as an assertion of error.

So what does this event, technically and tactically, actually show us?

CORE 1: WHAT THE NUMBERS SAY WHEN PLACED CORRECTLY

The raw data gives us a few dry but valuable figures:

Fastest lap: 2m20.673s, by Verstappen. Fastest lap by the strongest rival — journalist J. Martens: 2m23.327s. Delta: roughly 2.654 seconds per lap, or 1.85%.

In forty-one years of following motorsport, I have learned one thing: a 1.85% per-lap gap in motorsport is a large gap. For reference: in F1, the gap between two cars of the same team in qualifying is typically 0.1–0.3%; the gap between the leading group and the trailing group in a race often sits at 1–2% per lap but reflects equipment differences, strategy, tyre wear — not a single variable.

Here, every other variable was stripped out, according to the event narrative: same kart type, same circuit, same conditions. So the 1.85% gap has to be attributed to the single remaining variable: the driver.

That is what gives this event analytical value, even if on the surface it is entertainment. In parity equipment, a 1.85% per-lap pace differential is exactly the driver gap — and that is a number that exists in no Grand Prix dataset.

But — and this is where I must place the number on the operating table, not the altar.

The 1.85% figure has two structural limitations.

First, it comes from a single lap on a circuit with extreme traffic density. A fastest lap is affected by which slow cars you encounter, how many, and where. The nature of the task on this track — 100 cars over 2.5 km — means an average density of one car every 25 metres. At that density, the fastest lap is almost certainly the lap where the driver encountered the fewest obstacles in the technical sections. In other words, 2m20.673s is not Verstappen's clean-air pace; it is the best pace he achieved in congested conditions, which means his true clean-air gap is likely larger, not smaller, than 1.85%.

Second, the figure has a single source: the organiser's timing system. For an event run by the driver's own team, independent verification is essentially impossible. I always repeat my rule: data only tells part of the story, the rest lies in whether people know how to listen. And here, what should we listen for from the 1.85%? We should hear that it is a lower bound, measured under the least favourable conditions, by a single timing system. That is a firm number, not a pretty number.

From 2.5 km and 2m20.673s, I calculate an average speed of roughly 64 km/h. For professional karts, top speed can exceed 100 km/h on long straights; an average of 64 km/h over a 2.5 km circuit suggests two things: the layout has many low-speed technical corners, and — more importantly — traffic dragged average speed down considerably. In other words, this race ran in a low-closing-rate regime, with short reaction windows. It was not road racing. It was wrestling in a narrow corridor.

CORE 2: THE MARGINAL-COST CURVE OF AN OVERTAKE

This is the part of the analysis I consider most valuable from the entire event, and it is entirely absent from the original article.

Reading Verstappen's progress data lap by lap, a very clear curve emerges:

Lap 1: 64 rivals passed (P101 → P37). Next three laps (L1 → L4): 12 more (P37 → P25). Next two laps (L4 → L6): 15 more (P25 → P10). Next one lap (L6 → L7): 5 more (P10 → P5). Final seven laps (L7 → L14): only 4 more.

Placed on a chart, this is an inverse-exponential decay curve. The marginal cost of an overtake skyrockets as rival density drops. In the first lap, each pass is nearly free — you only need to pick the right lane, because there are so many cars around that standing still is itself a risk. By lap seven, with only four rivals ahead, each pass costs seven laps to complete.

This is the general lesson analysts often ignore: most of the time in a dominant race is spent passing the final few rivals, not the many. The elimination format makes this visible as a controlled experiment, but the logic holds in any race where traffic density falls — including F1 rounds where a driver must climb from the back to the lead group.

From here, I draw a more important conclusion: in any race, the best driver is not the one who passes the most in the early phase. The best driver is the one who can accept the cost paradox — meaning he knows that fifteen passes mid-race are worth less than four at the end, and allocates his risk accordingly.

Verstappen, according to the data, did the opposite: he loaded all his risk into lap one. That is not carelessness. It is an expected-value calculation.

CORE 3: THE EXPECTED VALUE OF THE STARTING LAP

In a points race, I always remind my students of one principle: protect your car on lap one. The cost of a DNF is unrecoverable. The cost of losing three positions is recoverable. The maths is clear, and it favours caution.

In an elimination format, the maths inverts.

When every rival you pass disappears permanently from the circuit, the reward of a lap-one pass is not just a position. It is the permanent removal of a variable from the equation. In other words, the reward structure of an elimination format has far finer granularity than a points race, where a position is simply a linear value.

With 100 rivals and a 30-lap budget, Verstappen publicly set his target before the race: pass 40 drivers on lap one. He delivered 64. He exceeded target by 60%.

This is a detail I do not want to skip, because it matters more than it appears. Setting a conservative target in public, then blowing past it spectacularly, is a classic expectation-management device. It protects the driver from reputational downside if he falls short, while maximising the positive surprise if he exceeds. Historically, this is a technique used by many top drivers when they are about to face a test whose outcome truly depends on them.

But hold on. There is a point I consider far more notable than the number 64.

Asked after the race how he handled lap one, Verstappen said he "didn't overthink it." Read casually, that sounds like a confession of instinct. It is not. Place it beside the public target of 40, and you realise 40 was not a random estimate. It was the result of a prior calculation about the required rate of progress to complete the task within the time budget. What "didn't overthink it" describes is not the absence of calculation, but the emotional regulation after the calculation is complete.

In other words: Verstappen calculated the problem beforehand, then deliberately switched off the analytical mind so as not to be paralysed in the moment. That is a different — and harder — skill than pure instinct.

CORE 4: STRATEGY ANALYSIS — PRESENT BUT NOT AS PEOPLE THINK

I need to be blunt about one thing: this event contains no strategic decision content in the F1 sense.

No pit window. No compound choice. No pit-loss trade-off under Safety Car or VSC. No undercut, no overcut. No team-order question. Any claim that this event assesses F1-level race strategy is unfounded. That is the truth I must state, even if it is unglamorous.

But it assesses something else, and that something is real: decision latency in traffic.

Let me return to the detail I consider the event's second most valuable. In the coverage, the event's race director — an event official, not a Red Bull employee — described how Verstappen chose lines: "He sees a gap that's going to open, and it's not open yet. He picked the right spots and went for every gap." That is not promotional copy. That is a technical description of a skill.

Let me dissect it.

In dense traffic, a gap does not exist in the present tense. It exists in the very near future — roughly 0.3 to 0.5 seconds ahead. An average driver reacts to gaps already open; a top driver acts on gaps about to open. The difference sounds small, but at 64 km/h, 0.3 seconds is about five and a half metres. In a corridor with one car every 25 metres, five and a half metres is the deciding distance between a clean pass and a wheel touch.

Notably, the same description says Verstappen "was on the right side of the track when there was a crash going on the other side." This is pre-event spatial awareness, not reaction to an event. He was already on the correct side before the crash happened. That is a marker of situation modelling — the ability to predict where traffic will deteriorate.

From another angle, his choice to "take to the grass" to avoid a spinning car is interesting. In a points race, going onto grass means losing speed, losing time, potentially damaging the floor. In an elimination format targeting quantity, going onto grass is a rational choice because the cost of losing space is offset by not being stuck behind a spinning car. He calculated the opportunity cost of the grass correctly.

CORE 5: ADAPTABILITY — THE UNDER-RATED SKILL

This is the part I consider the event's biggest lesson, and it sits elsewhere from where the media focused.

Verstappen had "three or four laps" of preparation. His rivals had "a couple of practice days." On a 2.5 km layout he had never driven.

I have seen many drivers face similar situations — arriving at a new circuit with minimal preparation time. Group A needs about 10–15 laps to find stable reference points: braking points, turn-in points, exit points. Group B needs only three to five laps. Group B are not natural geniuses. Group B have a different cognitive structure: they build more accurate models from less data, by allocating attention to high-leverage variables rather than to all variables.

For Verstappen, event data shows he set the fastest lap — 2m20.673s — with only three or four laps of preparation. For comparison: journalist Martens, who apparently had several practice days, set 2m23.327s.

This gap is shocking not because of its magnitude — but because of the inverse ratio between preparation time and outcome. A driver with one-tenth the preparation time was 1.85% faster.

In an adaptability problem, the quality of model-building matters more than the volume of raw data — and that is the skill that separates a good driver from a champion.

In other words, what this event really measures is not Verstappen's speed. What it measures is Verstappen's learning speed — and learning speed is a transferable variable, independent of circuit type or vehicle type. This is why I am unsurprised by his high performance in any discipline he enters as an amateur. He transfers models faster than others build new ones.

CORE 6: THE PROBLEM WITH THE PROBABILITY PROBLEM — LEARNING DIFFUSION

I need to address this before closing the Core section, because it is what most analyses of this event will overlook.

The elimination format has a counter-intuitive property: it self-simplifies. Every rival passed is a rival permanently removed. This means the driver's task becomes easier exponentially, not arithmetically. For any given pace gap, the hardest phase is not the final lap — it is the first.

But the narrative structure of an entertainment product is the opposite. It tells the story in an escalating-tension model: more dramatic towards the end, with the final rival as the most formidable. That is an effective storytelling structure. It does not reflect the mathematical truth of the format. The truth is: the final four passes consumed seven laps, but those four were the slowest remaining — and that is what makes them the hardest passes technically. This is not a contradiction. It is a natural consequence of density falling: you cannot pass if there is no one to pass, and passing the final three or four on a near-empty track requires a far larger pace gap than passing in a crowd.

This is an important transferable lesson. In an F1 race, a driver climbing from the back to the lead group does not struggle in the middle phase — they struggle in the final phase, when they must pass from P5 to P1. Why? Because by then, the remaining rivals share the same baseline pace. That is what the event's data displays clearly, and it is what the media overlooks when they focus on the final overtake.

CONTRARIAN 1: THE SAFETY SIGNAL THAT WAS MISSED

Now I must address the part the original article glossed over, and I consider it the most important part if we treat this event as a precedent.

In the coverage, Verstappen described: "Some people got really excited on the new extended part of the track, and there was a bit of a road blockage."

Read this line in a promotional article, and you may skip it. I do not skip it.

One hundred karts on a hybrid Silverstone layout, combining part of the Grand Prix circuit with a purpose-built extended section. A lap-one compression point. A road blockage. A Full Course Yellow — a full-circuit neutralisation — had to be deployed.

This is not a side detail. This is a predictable safety signal.

When you place 100 cars on a 2.5 km circuit, you create one car every 25 metres. Add to that: you require drivers to run in a low-closing-rate regime — averaging 64 km/h — meaning reaction margins several times shorter than in road racing. And finally, you place these drivers into an extended section they are unfamiliar with, while surrounded by more cars than any professional race allows.

This is a physical configuration that generates high and predictable risk. That it happened — blockage, spins, FCY — is not a surprise. It is a direct consequence of the design.

More notable is that the organisers apparently recognised this before the event. Rivals were given "a couple of practice days" on the very circuit. But Verstappen was not given those days — he had only three or four laps. Meaning: in a race with extreme density and a physical compression point, the single most commercially valuable driver in the entire event was also the least prepared.

If we look at this event from a risk-management angle, we see a noteworthy asymmetry: the organisers managed risk for amateur drivers — giving them practice, giving them familiarisation — but allowed a four-time world champion to enter the game with minimal familiarisation time. This may have been a deliberate decision to heighten drama for the content. But it raises a question about who carries responsibility if a serious incident occurs.

Every collapse has a premise; few people choose to look from the front. The lap-one blockage at this event was a premise already written down. It simply had not yet become a consequence.

CONTRARIAN 2: THE RIVAL PROBLEM — QUALITY UNDISCLOSED

This is the point I consider the most serious analytical problem with the event, and it sits where most people skim past.

The top three rivals behind Verstappen were: an F1 journalist, a YouTuber, and a Red Bull Ford Powertrains engine technician.

Read that again. The three best of 100 rivals were: a journalist, a content creator, and a factory technical employee.

What does this mean for the result?

It means Verstappen's victory is not a test of beating top-tier opposition. It is a test of beating a group with a heterogeneous skill distribution, in which the apex of the distribution — outside Verstappen himself — sits at the level of serious amateur, not professional.

In sports analysis, this is a structural problem, not a small observation. When you measure a driver's performance against a group, the value of the measurement depends on the group's quality. A world champion being faster than a journalist is a baseline expectation, not a finding. That he is 1.85% faster than a journalist with several practice days does not tell us how much faster he is than another professional driver.

This is not a diminishment of Verstappen's achievement. He still had to complete the task. He still had to pass 100 drivers in 14 laps. He still had to do it without contact. But we must place the achievement's meaning correctly. If we cite the 1.85% figure as an indicator of Verstappen's quality against rivals in the race, we are citing an indicator against an amateur group. It has no comparative value against F1 drivers.

And this is why an event that appears to offer a clean measurement — same equipment, same circuit — actually offers a measurement contaminated by another variable: rival quality. The equipment variable was stripped out. The rival variable was not.

In any scientific experiment, when you fix one variable and let another float, you do not have a clean experiment. You have a partially controlled experiment. That is exactly what this event provides: a partial control.

An interesting comparison: the traditional "Race of Champions" events pit top drivers from multiple disciplines — F1, WRC, MotoGP, rallycross — against each other in the same car type. That is a fully controlled experiment: equipment variable stripped, rival variable controlled. The "Max vs 100" event strips the equipment variable but replaces it with a heterogeneous rival variable. Scientifically, that is a step backward.

CONTRARIAN 3: EMPTY STANDS AND RADIO ECHOES

There is something in this event that data cannot measure, and I want to include it because it is the variable I always watch.

Empty stands do not kill a race, but they take away something numbers cannot measure. That is a line I wrote in my notebook years ago, when I began analysing games without crowds.

This event took place on a Wednesday evening at Silverstone. Live audience: minimal, mostly production staff and some invited guests. Stands — if any — had no large crowd. Under those conditions, where does psychological pressure on the driver come from?

This is where I see an important difference between an entertainment event and an official race. Grand Prix pressure comes from three sources: teammate, direct rival, and public. At this event, the first source was absent (no teammate), the second was diluted (amateur rivals), and the third was thin (near-empty stands).

So where did pressure come from? From the task itself: 100 rivals, an unfamiliar circuit, an unfamiliar format. Self-imposed pressure. This is an entirely different kind of pressure from a points race, where every mistake has permanent championship value.

But I want to shift attention to a detail I consider more valuable than all this: the radio exchange between the top three rivals about blocking Verstappen.

In the coverage, there is a detail: the leading trio discussed over radio the possibility of a "roadblock." The plan never materialised.

This is an interesting detail for two reasons.

First, it shows the rivals recognised that pure pace could not be compensated by skill. They needed a tactic. That is a reasonable reaction.

Second — and this is the point I want to emphasise — the plan could never have succeeded, and its failure is a mathematical demonstration of a broader principle. If the attacker's per-lap pace gap exceeds the defenders' ability to occupy the required road width, blocking cannot change the result. This is why, in F1, undercut-based defences often fail when tyre-offset gaps are large. The gap exceeds the threshold, and every tactic becomes meaningless.

In this event, the gap was 1.85% per lap. Three cars can occupy at most three lanes in a corridor roughly ten metres wide. Verstappen could go around them, inside or outside. The blocking plan failed not because it was poorly executed. It failed because it was mathematically impossible from the start.

I wonder whether that radio exchange was designed for broadcast. In an event produced for live streaming on Disney+, such exchanges often have higher storytelling value than tactical value. This is a reasonable suspicion, not an assertion. But if true, it says something about the event's nature: elements are included not because they are useful to the race, but because they are useful to the story.

CONTRARIAN 4: THE HEADLINE IS A MARKETING ARTEFACT, AND THE ARTICLE DOES NOT HIDE IT

The original article's headline is: "How Verstappen won the 'biggest race' of his career."

The quotation marks around "biggest race" are not accidental. They are a signal that the editorial team itself understands this is deliberate hyperbole. In normal reporting, you do not put quotation marks around your own description. You put them there when the description is a quote — or when you want readers to know you know it is not literally true.

What does this mean for reading comprehension?

It means this event, in its communicative essence, is a commercial product with a factual core. Read it as sports news and you will be misled by promotional language. Read it as a lesson in F1's modern business model and you will learn a great deal.

I want to make one specific observation. Verstappen, after winning, was quoted saying: "It's my first win of the year, so I'll take this one!"

This is the line I invite you to read slowly. It is a public self-awareness of the event's actual place in his season. If he truly considered this an important race, he would not joke about it. That he jokes means he treats it exactly as it is: a fun promotional event, not a race.

This honesty is valuable. It helps us read the event correctly. The problem is that most of the public will not read that joke as a joke. They will read the headline. And the headline — even with quotation marks — will leave the impression that Verstappen won an important race.

This is the final point of the Contrarian section, and I consider it the most important systemic point: when a sport begins producing its own content, the boundary between news and advertising blurs. F1.com covering a team's event is not a violation. But it is a marker of where the sport's entire media ecosystem is heading.

CONTRARIAN 5: THE REPUTATION EQUATION AND THE HIGHLIGHT REEL

There is another aspect of this event I want to address, and it relates to how a driver's memory is built.

The phrase "the biggest race of his career" — even inside quotation marks — is a line that will live in highlight reels. It will be clipped, placed in YouTube video titles, repeated in GOAT debates. That is the nature of media language: strong lines live longer than accurate ones.

In forty-one years of watching sport, I have seen many legends built not from the most important events, but from those with the best stories. This is not a criticism of Verstappen. It is an observation about how sporting reputation is constructed.

The problem with this event is: it can become part of the Verstappen mythology without carrying any genuine sporting information. It is one of the season's best stories in media terms, but it is not one of its most important events.

If we cannot distinguish those two, we will misread history.

CONTRARIAN 6: THE STRATEGIC SIGNAL OF THE FUTURE ENGINE FACTORY

This is the final detail I want to bring into the analysis, and it is the one I think matters most if we see this event as an industry event, not a sporting one.

In third position at the event, there was a Red Bull Ford Powertrains technician.

What is this entity? It is Red Bull's works engine unit, prepared for the new engine regulation cycle starting in 2026. This is a programme Red Bull has invested years in preparing, and it represents a structural shift in the team's strategy: from an engine customer to an engine manufacturer.

That a technician from this unit appeared in an entertainment event, placed third, and was named in event coverage — this is not a coincidence. This is a long-lead brand-seeding strategy.

Think about it in time terms. If the new engine regulations take effect in 2026, and this event took place in that window, then this is a communications activity that puts the future engine unit's name into public consciousness before it has any on-track record. This is a widely used industry strategy: introducing a product that does not yet exist by attaching it to a person who is already famous.

A contract is only beautiful on paper until someone tries to fit it into a running system. Red Bull's new engine unit is the same: it is only beautiful on paper until it actually races. But in the current phase, brand seeding is part of the strategy, and this event is part of that seeding.

This leads to a broader question: when an F1 team produces its own sports content, and when it uses that content to promote its own industrial projects, where is the boundary between sport and commerce?

I do not have the answer. But I believe this is a question we will face many times in the coming years.

TAKEAWAY: THREE THINGS TO WATCH

Rather than a summary, I want to offer three signals to watch over the coming seasons.

First, whether the "Max vs 100" format becomes an annual product. If it repeats next winter or in the next mid-season break, that is a signal that a team's own content IP has become a stable budget line, not a one-off stunt. This would be a strong confirmation of the business model this event represents.

Second, whether rival teams replicate the model. If another top team stages a star-versus-amateur-field event with third-party streaming distribution, we will see competitive escalation in marketing spend. Watch window: 6 to 18 months.

Third, whether the rival composition in future editions is disclosed in more detail. If organisers publish the professional/non-professional split of rivals, we can convert the event from an entertainment product into a usable driver-performance dataset. This is a small change but carries the largest analytical value.

From a Milan training ground to an esports screen, the law of gaps remains the same. When you strip the equipment variable, you see the driver. When you strip the driver variable, you see the equipment. But to see both at once, you need an event designed for analysis, not for broadcast.

Red Bull's race for Verstappen was a media success. It was not a data success. And for someone who believes every tracking number belongs on the operating table, not the altar, that is the most important distinction we need to make.