2026 Winter Olympics Physics: What the Records Showed

2026 Winter Olympics physics: a speed skater in a deep tuck, a V-style ski jumper and a figure skater spinning inside glowing rings.

Updated July 2026 with the completed Milano Cortina results: nine Olympic records, one world record, an air-density analysis of why the long-track world marks survived, and the first three Olympic disqualifications under the PFAS ski wax ban.

Why did the most expensive suit in speed skating history fail to produce a single long-track world record?

Welcome to FreeAstroScience.com, where we pull the hard science apart and hand it back in language you can actually use. We first published this piece in February 2026, while Milano Cortina was still running and every technical promise was still just a promise. The results are in now. Some of those promises held. One of them ran into a wall it was never going to clear, and the wall was made of air. Stay with us to the end and you will know exactly which forces decided these medals.

TL;DR: The Direct Answer

Milano Cortina 2026 produced nine Olympic records and exactly one world record, and the reason is air density: the Milan oval sits close to sea level, where the air is about 15 percent denser than at the Salt Lake City oval that holds most of the world marks. A new hybrid suit offering about 8 percent less aerodynamic drag could not close a gap that size. The Games also enforced the first Olympic ban on PFAS ski wax, disqualifying three athletes.

The 2026 Winter Olympics physics story is unusually clean to read, because almost everything was new. New temporary oval at Rho. New suit. New wax rules. New events on the hill at Predazzo. Seven long-track Olympic records fell in Milan between 7 and 21 February. Not one long-track world record did. That gap is the whole lesson, and it comes down to a single term in an equation most readers met in school.

Why Did 2026 Winter Olympics Physics Stop Short of World Records?

Air density did it. Nothing else comes close.

The drag force on a moving skater scales with one half of the air density, times a drag coefficient, times frontal area, times the square of speed. Three of those four terms are things a team can attack. Posture shrinks frontal area. Fabric shrinks the drag coefficient. The fourth term, the density of the air itself, does not care what anybody wears. It is fixed by how much atmosphere is stacked above the rink.

Drag ∝ ρ × Cd × A × v²
where ρ is air density, Cd the drag coefficient, A the frontal area, and v the skating speed

Mark Messer, who built the Milan ice and has now worked seven Winter Games, put it to National Geographic in the plainest possible terms: the higher you go, the thinner the air gets. Calgary’s oval sits at 3,428 feet. The Utah Olympic Oval in Salt Lake City sits at roughly 4,675 feet. Inzell, in Bavaria, has been taking world records off Salt Lake City from just 2,264 feet.

Milan sits on the Po plain, barely above the sea.

So we ran the arithmetic ourselves, using the International Standard Atmosphere to convert each elevation into an air-density ratio. The last column is the part nobody puts on a press release.

Our calculation, using the International Standard Atmosphere. Venue elevations as reported by National Geographic.
Speed skating ovalElevationAir density vs sea levelFree reduction in air drag
Milano Speed Skating Stadium, RhoNear sea level100%None
Max Aicher Arena, Inzell690 m / 2,264 ft93.5%6.5%
Olympic Oval, Calgary1,045 m / 3,428 ft90.4%9.7%
Utah Olympic Oval, Salt Lake City1,425 m / 4,675 ft87.0%13.0%

A skater in Salt Lake City begins every race with 13 percent of the air already taken away, before a single boot is laced.

Set that against the hybrid suit three federations brought to Milan, sold on a wind-tunnel figure of roughly 8 percent less aerodynamic drag. Both numbers pull on the same term in the same equation. The suit was worth about what Calgary hands out for free, and it was still five points short of Utah. Milan asked its skaters to beat marks set in thinner air while wearing a partial refund of the difference.

They could not. They got close, which is its own kind of achievement, and the record sheet says so: nine Olympic records across the Games, seven of them in long track. The single world record of the entire Olympics came in short track, over 500 meters, where the distance is short and the racing is tactical rather than a sustained argument with the air. Xandra Velzeboer skated it in 41.399.

9Olympic records set at Milano Cortina 2026
7of them in long-track speed skating
1world record, in short track, over 500 m

How Do You Build an Olympic Oval That Never Existed Before?

Slowly, and with dirty water.

The Milano Speed Skating Stadium was the first temporary indoor speed skating oval ever built for an Olympic Games, assembled inside converted exhibition pavilions at Fiera Milano in Rho. Mark Messer, the Canadian ice technician behind Calgary’s oval, one of the fastest sheets on earth, started laying it down in late October 2025.

His method has no shortcuts. The first thin layer takes about 45 minutes to freeze solid. Then he does it again. And again, a few hundred times, spreading water by hose and occasionally by hockey stick as the sheet thickens toward competition depth.

Speed skating ice has to be colder and harder than any other Olympic surface, because the blades are ground to an edge that a single speck of grit will ruin. Yet the water is deliberately not pure. As Messer described it to CBC, just the right amount of impurity is what holds the ice together. Too clean and the sheet turns brittle.

Each discipline wants a different recipe, measured in total dissolved solids.

Ice specifications by discipline, in parts per million of total dissolved solids.
SportTotal dissolved solidsWhat the ice has to do
Curling0 to 10 ppmVery hard, so pebbled stones track predictably
Speed skatingLow, exact value proprietaryCold and hard for maximum glide per push
Figure skating120 to 150 ppmSofter, with enough give to absorb a landing

It worked. Seven Olympic records on a sheet of ice that did not exist eighteen months earlier is a strong verdict on Messer’s craft, and it is worth remembering that the last time Olympic speed skating happened in Italy, in 1956, the athletes raced on the frozen surface of Lake Misurina.

Did the 8 Percent Speed Skating Suit Deliver in Milan?

It delivered what it promised in a wind tunnel, which turned out to be less than the headlines implied.

Three federations, the Netherlands, Italy and Canada, split a development bill of roughly 350,000 euros over four years, working with Eindhoven University of Technology and the University of Ottawa. Bert van der Tuuk, who has dressed Dutch Olympic skaters for two decades, called the result one of the biggest changes his sport has seen.

The design is a dual layer on the arms and legs. An inner compression layer carries closely spaced vertical ridges. A second layer stretches over the top of it, taut as a drumskin. Between roughly 20 and 90 kilometers per hour, that surface trips the boundary layer into controlled turbulence, which sounds like the opposite of what you would want and is not. Turbulent flow clings to a curved surface longer than smooth flow does, so the low-pressure wake behind an arm or a thigh shrinks. Cyclists have used the trick for years. Polyurethane coating on the back and upper legs cuts air permeability where the suit is closest to flat.

So what happened on the ice?

The Netherlands took 13 of the 42 long-track medals, five of them gold. Italy took three golds at home, two through Francesca Lollobrigida, who won the 3000 meters on the opening day of competition in an Olympic record 3:54.28, on her 35th birthday, then added the 5000 meters. Canada took the women’s team pursuit.

And the two fastest men’s sprints of the Games went to Jordan Stolz of the United States: 33.77 over 500 meters and 1:06.28 over 1000, both Olympic records, both ahead of the Netherlands’ Jenning de Boo by a margin you could measure with a blink.

No public data separates the suit’s contribution from the athlete inside it, the blade under it, the ice beneath that, or the way each race was paced. Which is exactly the point. An 8 percent figure from a wind tunnel is a laboratory result, and the honest way to report it is as a laboratory result. Milan did not falsify it. Milan simply declined to make it visible.

Why Do Figure Skaters Spin Faster Without Pushing?

Because angular momentum is conserved, and they change the shape of the thing that carries it.

The rule is short. Angular momentum equals moment of inertia multiplied by angular velocity. With no external torque acting, and ice friction is close enough to nothing for a few seconds, that product cannot change.

L = I × ω
L is angular momentum, I is moment of inertia, ω is angular velocity

Moment of inertia depends on how far a skater’s mass sits from the spin axis. Arms out, legs extended: mass is far from the axis, I is large, and the rotation is slow. Arms in tight, legs stacked: I collapses, and since the product has to stay put, angular velocity climbs to compensate. The blur you see is bookkeeping.

What the physics does not do is win anything. Ilia Malinin arrived in Milan as the two-time reigning world champion and the only man landing a quadruple Axel, and the Milano Ice Skating Arena expected a coronation. He faltered on four of his seven planned quads in the free skate, placed fifteenth in that segment, and finished eighth overall. Mikhail Shaidorov of Kazakhstan, another 21-year-old first-time Olympian, took the gold.

Conservation of angular momentum gives every skater on that ice the same ceiling. Getting there on the night is a different problem entirely.

What Held the Ski Jumpers Up Over Predazzo?

Three forces, in permanent negotiation: gravity, lift and drag.

Gravity is the fixed cost. It pulls every jumper toward the outrun at the same rate and no technique changes that. Lift is the answer, generated when a jumper turns their whole body into a low-aspect-ratio wing, skis splayed into a V, torso laid almost flat along the flight path.

What matters is the angle of attack, the angle between the ski and the oncoming air. Wind-tunnel work on full-scale jumpers shows lift climbing as that angle opens toward about 30 degrees. Past 30 degrees lift plateaus while drag keeps rising, so the lift-to-drag ratio, the number that actually sets distance, starts falling. Open up too far and you trade flight for a slow, steep descent.

Drag also bleeds speed during the flight, which bleeds lift, which is why every jump ends. The five to seven seconds a jumper spends in the air is a controlled loss.

Predazzo’s rebuilt large hill, HS141 with the K-point at 128 meters, hosted the first Olympic large hill event for women on 15 February. Anna Odine Strøm of Norway won it with 284.8 points, having already taken the normal hill.

Here is the detail worth keeping. Strøm’s winning second jump measured 132.0 meters and scored 148.1 points. Her teammate Eirin Maria Kvandal jumped 133.5 meters in the same round, a meter and a half farther, and scored 142.1. Ski jumping scores distance, then adds style marks from the judges, then applies compensation for wind conditions and start-gate position. Fly farther and lose. The scoring sheet is doing physics too.

Did the PFAS Wax Ban Survive Its First Olympics?

It survived, and it bit three times.

Milano Cortina was the first Games contested entirely without fluorinated ski waxes, following the ban the International Ski and Snowboard Federation brought in for the 2023-24 season. PFAS covers a class of around 15,000 compounds built on the carbon-fluorine bond, one of the most stable in organic chemistry, which is what makes them superb glide agents and impossible to get rid of afterwards.

The case for banning them was never really about sport. Wax technicians, who spend their working lives breathing vaporized fluorocarbons in small rooms, have turned up with some of the highest occupational PFAS blood burdens ever measured. The wax wears off the ski base as the athlete skis, so it goes into the snow, then the meltwater, then the aquifer.

Enforcement at these Games used a three-sample test on each ski. Every sample has to exceed the fluorine threshold before a disqualification stands.

Disqualifications under the fluorinated wax ban at Milano Cortina 2026.
AthleteNationEventDate
Shiba MasakiJapanSnowboard, men’s parallel giant slalom9 February
Han DasomRepublic of KoreaCross-country, women’s sprint10 February
Lee Eui-jinRepublic of KoreaCross-country, women’s sprint10 February

All three said the positive results came from contaminated or mistakenly applied wax rather than deliberate cheating, and given how long fluoro residue survives on shared equipment, that is entirely plausible.

The performance question got its answer in Tesero. Ben Ogden of Vermont took silver in the classic sprint, the first American man to reach a cross-country Olympic podium in fifty years, then took a second silver in the team sprint with Gus Schumacher. Fluorine-free wax did not stop that.

One caution is worth carrying forward. Fluoro-free is not the same as harmless. Wax formulas stay proprietary, and as technicians told Undark, banning one chemical family says nothing about what took its place. We will find out.

For more on how these forces play out on a slope rather than a rink, see our breakdown of how skiers control speed at 140 km/h and our look at what happens to your body during Olympic alpine skiing.

What Milan Left Us With

A sea-level oval, a suit that did its job quietly, seven Olympic records and a set of world marks still sitting at altitude where they have sat for years.

Read together, the Milano Cortina results make an argument that engineers have been making for a long time and sport keeps rediscovering: the environment usually beats the equipment. Thirteen percent of missing air outweighed four years and 350,000 euros of fabric research. Angular momentum handed Ilia Malinin the same conserved quantity it hands everyone, and he finished eighth. A woman jumped a meter and a half farther than the champion and lost by six points. Chemistry that had ruled Nordic skiing for forty years was removed, and an American won two silvers without it.

None of that makes the engineering pointless. It makes it honest. Every one of these Games was a controlled experiment run in public, with the variables written down and the results published within hours, which is more transparency than most laboratories manage.

This article was written specifically for you by FreeAstroScience.com, where we explain complex scientific principles in simple terms. Come back whenever you want to understand something properly. And whatever else you do, never turn off your mind, because as Goya warned us, the sleep of reason breeds monsters.

Gerd Dani, President, FreeAstroScience — Science and Cultural Group

Frequently Asked Questions

Why were there no long-track world records at the 2026 Winter Olympics?
The Milan oval sits close to sea level. The Salt Lake City oval, where most world marks were set, stands at about 1,425 meters, and its air is roughly 13 percent thinner, so drag is lower at every speed. Seven Olympic records fell in Milan, but the world marks stayed at altitude.
How much faster is the new hybrid speed skating suit?
Wind-tunnel testing indicated roughly 8 percent less aerodynamic drag than a conventional suit. Three federations, the Netherlands, Italy and Canada, shared a development cost near 350,000 euros over four years. No public race data separates the suit from the athlete, the blade, the ice and the pacing of a race, so treat 8 percent as a laboratory figure.
Why do figure skaters spin faster when they pull their arms in?
Angular momentum is conserved when no outside torque acts on a rotating body. Angular momentum equals moment of inertia multiplied by angular velocity. Pulling the arms and legs toward the body lowers the moment of inertia, so angular velocity has to rise to keep the product constant. The spin accelerates without any push.
How many athletes were disqualified for PFAS ski wax at Milano Cortina 2026?
Three. Japanese snowboarder Shiba Masaki was disqualified from the parallel giant slalom on 9 February, and South Korean cross-country skiers Han Dasom and Lee Eui-jin were disqualified from the sprint on 10 February. All three said the positive tests came from contaminated or mistakenly applied wax.
Does a longer ski jump always score more points?
No. In the first Olympic large hill final for women at Predazzo, Eirin Maria Kvandal jumped 133.5 meters and scored 142.1 points, while Anna Odine Strøm jumped 132.0 meters and scored 148.1. Scores combine distance with style marks from the judges and compensation for wind and start-gate position.

Sources

  1. Speed skating at the 2026 Winter Olympics, medal table and records list. Wikipedia
  2. Every Olympic record broken at Milano Cortina 2026. Olympics.com
  3. Milano Cortina 2026 by the numbers: records, milestones and moments. Olympics.com
  4. The science behind some of the world’s fastest ice, with venue elevations and comments from ice maker Mark Messer. National Geographic
  5. The science of speed skating and the tech driving new records. Olympics.com
  6. Canadian ice master makes Olympic history with first indoor temporary speed skating rink. CBC Sports
  7. Dutch, Italian and Canadian teams introduce hybrid aerodynamic suit for the Milan Winter Games. Speed Skating News
  8. Diniz and Van de Bunt discuss their experience with the new hybrid suit. Speed Skating News
  9. Malinin finishes eighth in Olympic debut. U.S. Figure Skating
  10. Ski jumping at the 2026 Winter Olympics, women’s large hill individual results. Wikipedia
  11. Predazzo Olympic Ski Jumping Hill specifications after the 2025 renovation. NBC Olympics
  12. The freaky physics of the ski jump. Smithsonian Magazine
  13. Performance and biomechanics in the flight period of ski jumping: a systematic review. PubMed Central, PMC9138498
  14. The Olympics just saw its first forever chemical disqualifications. Grist
  15. Team USA is proving that world-class skiing does not require PFAS wax. Grist
  16. For the first time, Olympics ban PFAS waxes in snow sports. Undark
  17. Chemistry gives Winter Olympic athletes an edge on the snow and ice. Chemical and Engineering News
  18. Technology on snow and ice: innovation, monitoring and performance for Milano Cortina 2026, a narrative review. PubMed Central, PMC12882770

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