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GuidesMarch 2, 2026·10 min read

How to Predict F1 Race Results — Beyond the Starting Grid

Why qualifying pace doesn't tell the whole story. Learn how to read long-run data, understand tyre strategy, account for chaos factors, and turn race weekend data into accurate finish-order predictions.

Race predictions are a completely different animal from qualifying. Saturday is one lap, one chance, pure speed. Sunday? That's 300+ kilometers of strategy, tyre management, traffic, and chaos. The pole-sitter doesn't always win, and the gap between grid position and finishing position is exactly where the best predictions live.

Here's how to read the data that actually matters for race day and turn it into predictions that beat guesswork.


The Grid Is Just the Starting Point

There's a trap that catches nearly everyone when they start predicting races: copying the qualifying order and calling it a day. Grid position is correlated with finishing position, sure. The pole sitter wins roughly 40% of races. But the race reshuffles the order in ways qualifying alone simply can't tell you about.

Why does the order change?

  • Different tyre degradation rates. A car that's fast over one lap may eat its tyres over a race stint
  • Strategy variation. 1-stop vs 2-stop, undercut vs overcut, tyre compound choices
  • Dirty air sensitivity. Some cars lose more performance in turbulent air behind other cars
  • Overtaking ability. Raw pace means nothing if you can't pass on a tight circuit
  • Reliability and incidents. DNFs, safety cars, and first-lap collisions

Race Pace vs. Single-Lap Pace

Here's the thing most people don't realize: the fastest car over one lap is not always the fastest car over a race distance.

A car optimized for qualifying (high downforce, aggressive setup, peak power) may suffer from higher tyre degradation over a race stint. Meanwhile, a car that qualified P5 might have the best race pace because their setup prioritizes tyre preservation and consistent lap times.

Where do you find race pace data? FP2 long runs. During FP2, teams fill their cars with fuel and run extended stints of 8-15 laps to understand tyre degradation. This is the closest simulation of actual race conditions you'll get before Sunday.


Reading Long-Run Data

Long-run analysis is the single most valuable skill for race predictions. Here's what a typical FP2 long-run stint analysis looks like:

FP2 Long-Run Stint Analysis

HardMediumSoftInterWet
1:33.21:33.71:34.21:34.61:35.1VERVER L1 (M): 1:33.2VER L2 (M): 1:33.4VER L3 (M): 1:33.5VER L4 (M): 1:33.7VER L5 (M): 1:33.8VER L6 (M): 1:34.0VER L7 (M): 1:34.1VER L8 (H): 1:33.8VER L9 (H): 1:33.9VER L10 (H): 1:34.0VER L11 (H): 1:34.0VER L12 (H): 1:34.1VER L13 (H): 1:34.2VER L14 (H): 1:34.3VER L15 (H): 1:34.4NORNOR L1 (M): 1:33.4NOR L2 (M): 1:33.7NOR L3 (M): 1:33.9NOR L4 (M): 1:34.2NOR L5 (M): 1:34.5NOR L6 (M): 1:34.7NOR L7 (H): 1:33.9NOR L8 (H): 1:34.0NOR L9 (H): 1:34.1NOR L10 (H): 1:34.2NOR L11 (H): 1:34.3NOR L12 (H): 1:34.3LECLEC L1 (H): 1:33.6LEC L2 (H): 1:33.7LEC L3 (H): 1:33.8LEC L4 (H): 1:33.9LEC L5 (H): 1:34.0LEC L6 (H): 1:34.1LEC L7 (H): 1:34.1LEC L8 (H): 1:34.2HAMHAM L1 (M): 1:33.5HAM L2 (M): 1:33.8HAM L3 (M): 1:34.1HAM L4 (M): 1:34.4HAM L5 (M): 1:34.8HAM L6 (M): 1:35.1HAM L7 (H): 1:34.0HAM L8 (H): 1:34.1HAM L9 (H): 1:34.2HAM L10 (H): 1:34.3HAM L11 (H): 1:34.3HAM L12 (H): 1:34.4RUSRUS L1 (M): 1:33.6RUS L2 (M): 1:33.9RUS L3 (M): 1:34.2RUS L4 (M): 1:34.5RUS L5 (M): 1:34.9RUS L6 (H): 1:34.1RUS L7 (H): 1:34.2RUS L8 (H): 1:34.3RUS L9 (H): 1:34.4RUS L10 (H): 1:34.5RUS L11 (H): 1:34.6Lap Time (s)

How to read this chart:

Each dot represents a lap time during a long-run stint. The color indicates the tyre compound (yellow for medium, white for hard, red for soft). Here's what to look for:

  1. Starting pace. Look at the first lap of each stint. Verstappen's first medium lap (93.2s) is faster than Norris's (93.4s), suggesting Red Bull has a baseline pace advantage.

  2. Degradation slope. How quickly do the dots trend upward? Norris's medium stint goes from 93.4s to 94.7s (1.3s over 6 laps, roughly 0.22s/lap degradation). Verstappen's medium goes from 93.2s to 94.1s over 7 laps (roughly 0.13s/lap). Lower degradation is a huge race advantage.

  3. Compound comparison. Leclerc ran only hards, which means Ferrari may be planning a different strategy. His hard tyre pace (93.6s start) is competitive with others on mediums. That's a strong sign.

  4. Consistency. Tight clusters of dots mean consistent pace. Scattered dots suggest the driver is struggling with balance or traffic.

The team pace picture in race trim often looks quite different from qualifying. Here's an example where the race pace hierarchy diverges from the Saturday grid:

Race Pace Hierarchy (from FP2 Long Runs)

Red Bull
Leader
REF
Ferrari
+0.098s
McLaren
+0.156s
Mercedes
+0.312s
Aston Martin
+0.534s
Racing Bulls
+0.723s
Alpine
+0.812s
Williams
+0.890s
Haas
+0.945s
Audi
+1.123s

See how Ferrari jumped ahead of McLaren in race pace despite qualifying behind them? This happens all the time. Some cars are set up aggressively for qualifying and pay for it with higher race degradation. When you see a team with better race pace than qualifying pace, predict them to finish ahead of where they started.


Tyre Strategy: The Chess Game

After raw pace, tyre strategy is the biggest variable in race predictions. Understanding the basics gives you a serious edge.

1-Stop vs. 2-Stop

The default strategy at most circuits is a 1-stop: start on one compound, pit once around lap 20-25, finish on a harder compound. But when tyre degradation is high or the pit lane is short, a 2-stop can actually be faster.

When to expect 2-stops:

  • High tyre degradation circuits (Silverstone, Barcelona)
  • Races where the pace difference between 1-stop and 2-stop is within the pit stop time loss (roughly 22 seconds)
  • When a safety car makes an extra stop "free"

The Undercut and Overcut

  • Undercut: pitting before the car ahead. You jump onto fresh tyres and gain time while they're stuck on old rubber. Works best when tyre degradation is high and there's a big pace gap between worn and new tyres.

  • Overcut: staying out longer while the car ahead pits. This works when the out-lap on new tyres is slow (cold tyres, traffic) and the track is in optimal condition.

Starting Tyre Choice

All drivers have free choice of starting compound regardless of qualifying performance. Watch for drivers who choose a harder compound (mediums instead of softs). They're trading early-race pace for a longer first stint, which can set up powerful undercut or overcut opportunities later.


Chaos Factors

Mario Andretti once put it perfectly:

"If everything seems under control, you're not going fast enough."

Mario Andretti, 1978 F1 World Champion

That applies to predictions too. Even the best data-driven prediction can be undone by race-day chaos. You can't predict these events specifically, but you can account for how likely they are.

Safety Cars

A safety car bunches the field, erases all gaps, and gives trailing cars a free pit stop. At circuits with a high safety car probability (Albert Park, Singapore, Baku, Monaco), expect the race to be chaotic.

First-Lap Incidents

The first lap and first corner are where most race incidents happen. Drivers starting in the midfield (P7-P15) are most at risk because they're bunched together and fighting hard for position. A conservative prediction might avoid placing volatile mid-pack drivers too high.

Reliability

Some power units and teams are more reliable than others. If a team has had multiple DNFs in recent races, factor in a slightly higher chance of a non-finish. A single DNF can shuffle your entire P5-P10 prediction.

Weather Changes

Mid-race rain is the ultimate wildcard. If rain is possible, teams with the best wet-weather ability (historically Red Bull and Mercedes) and drivers known for rain skills become more valuable to predict higher.


How Grid Position Maps to Finishing Position

As a rough rule of thumb, here's how grid position translates to expected finishing position across a full season:

GridWin%Podium%Points%
P1~40%~75%~90%
P2~20%~60%~85%
P3~12%~50%~80%
P4-P5~5%~25%~70%
P6-P10~2%~10%~50%

Clean side vs. dirty side of the grid also matters. The driver on the clean (racing line) side of the grid typically makes better starts. At most circuits, odd-numbered grid slots (P1, P3, P5) are on the clean side.


Putting It All Together: A Prediction Example

Let's say you have this data going into a race:

Qualifying result: VER P1, NOR P2, PIA P3, LEC P4, HAM P5, RUS P6, ANT P7, ALO P8, TSU P9, GAS P10

FP2 long-run pace: Red Bull fastest, then Ferrari, then McLaren, then Mercedes

Circuit profile: medium tyre degradation, 2 Straight Mode zones, moderate overtaking

Strategy: likely 1-stop, medium to hard for most

Weather: dry, no rain expected

Your race prediction might look quite different from the grid:

Sample Race Prediction

PosDriverGapStatus
1VERLEADERFIN
2LEC+5.2FIN
3NOR+8.1FIN
4HAM+12.4FIN
5PIA+15.7FIN
6RUS+23.8FIN
7ANT+28.1FIN
8ALO+45.3FIN
9GAS+51.2FIN
10LIN+53.8FIN

Key changes from the grid:

  • Leclerc P4 to P2: Ferrari had better race pace than McLaren in FP2 long runs. Leclerc, a strong overtaker, passes Norris and Piastri via undercut.
  • Norris P2 to P3, Piastri P3 to P5: McLaren's higher tyre degradation showed in FP2. They lose positions to the lower-deg Ferrari.
  • Hamilton P5 to P4: Second Ferrari benefits from the same pace advantage.
  • GAS and TSU swap: Small shuffles in the midfield are common and expected.

Scoring Race Predictions, Including DNFs

Race scoring in Podium Prophets works the same as qualifying, but DNFs add an extra layer of complexity:

Race Prediction With a DNF Shuffle

Exact = 5pt1-off = 3pt2-off = 1pt
DriverPredictedActualAccuracyPoints
VERP1P1Exact5
LECP2P2Exact5
NORP3P41-off3
HAMP4P31-off3
PIAP5P5Exact5
RUSP6P82-off1
ANTP7P61-off3
ALOP8PMiss0
GASP9P72-off1
TSUP10P91-off3
Total29

In this example, Alonso's DNF (predicted P8, classified as DNF) means everyone behind him moved up one position. Your prediction of Russell P6 becomes P8 because of the DNF shuffle, scoring you only 1 point instead of the 5 you expected.

DNF strategy: You can't predict specific DNFs, so the best approach is to predict the most reliable drivers in contested positions and accept that a surprise retirement will occasionally hurt your score.


Your Race Prediction Checklist

  1. Start with qualifying order. It's the baseline, not the answer
  2. Adjust for race pace. FP2 long-run data is your primary tool. If a team is faster in race trim than qualifying, move them up
  3. Factor in degradation. Drivers with lower tyre degradation over long stints will gain positions late in each stint
  4. Consider strategy. Will any team benefit from a different tyre strategy? Did anyone choose a harder starting compound?
  5. Account for the circuit. Easy-to-overtake tracks amplify pace advantages. Street circuits lock in the grid
  6. Check chaos probability. At high safety-car circuits, compress your gaps and predict more conservatively
  7. Grid penalties and pit lane starts. Fast cars starting from the back will often recover to the points
  8. Trust the long-run data. If a driver's FP2 pace says P3 but their grid says P6, the FP2 data is often more predictive for the race

The best race predictions combine qualifying position with FP2 race pace data. Start from the grid, then systematically adjust for the pace differences you see in long runs. The data doesn't guarantee accuracy, but it gives you a framework that beats guesswork every time.

Ready to make your first race prediction? Join Podium Prophets and put your race craft to the test.

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