Pacing Strategy — The Science of Surviving 90 Minutes, Borrowed from Endurance Sports

Photo by Arnaud STECKLE on Unsplash

Soccer is not a sport where you run at a constant pace for 90 minutes. According to Bangsbo et al. (2006), a player performs 150–250 sprints per match, with a high-intensity action occurring roughly every 150 seconds. How a player distributes energy within this irregular output pattern determines the quality of the final phase of the match.

Bradley et al.’s (2009) analysis of 370 Premier League matches revealed that high-intensity running distance between the 61st and 75th minutes dropped by an average of 35% relative to the first half. Among top performers, however, that decline stayed within 15%. The gap is not one of aerobic capacity—it is a difference in first-half energy-use strategy. In other words, it is a difference in pacing quality.

• Scoring rate after 75 minutes — UEFA Champions League data shows roughly 30% of all goals are scored after the 75th minute. Teams that fail to pace correctly see their defense collapse during this window
• Managing Rating of Perceived Exertion (RPE) — Foster et al. (2005) demonstrated that athletes who consciously manage their RPE are better pacers. The ability to accurately perceive “how hard am I working right now?” is itself a trainable skill
• Avoiding glycogen depletion — Mohr et al. (2003) reported that second-half performance decline correlates strongly with reduced muscle glycogen. Unnecessary high-intensity actions in the first half waste this finite fuel supply

The road-cycling time trial sits at the cutting edge of pacing research. Riders wear power meters and “design” their race-day output around their FTP (Functional Threshold Power). In a 40 km time trial, for example, holding 95–100% of FTP in an “even-pace strategy” is considered optimal (Atkinson et al., 2007).

Three Pacing Strategy Types from Cycling

1. Even pacing — Maintaining a constant output. Optimal for flat time trials. In soccer this translates to keeping running volume roughly equal between the first and second halves
2. Negative pacing — Holding back in the first half and raising output in the second. Foster et al. (2005) reported that this strategy produces the highest terminal performance in endurance events. In soccer it maps to a tactical approach that saves the decisive push for the second half
3. Variable pacing — Adjusting output to match terrain changes. Used in hilly road races. This is the closest analogue to soccer’s “adjusting intensity to match transitions between attack and defense”

The single most valuable lesson soccer players can take from cycling is threshold perception. Cyclists know their FTP and constantly monitor what percentage of it they are riding at. Soccer players need the same awareness—what percentage of my maximum sustainable intensity am I at right now? This “internal pacemaker” can be developed through interval sessions on an indoor trainer.

The 800 m is often called the hardest event to pace. It is too long for an all-out sprint and too short for a distance-running approach, forcing the athlete to control effort right at the lactate threshold with surgical precision. Thompson’s (2015) analysis of world-championship finals revealed that medalists’ split ratio was 50.5 : 49.5—virtually even, yet with a marginally faster first lap, constituting a slight positive split.

Middle-Distance Pacing Principles Applied to Soccer

• Rein in the first 100 m — Every 800 m runner knows the opening 100 m is the danger zone. Go out too hard on adrenaline and you collapse in the back half. In soccer, an over-aggressive press at kickoff leads to early depletion in the second half
• Lap-time consistency — The 1500 m world-record holder typically varies just 1–2 seconds between 400 m laps. This sense of consistency translates to keeping running volume even across each 15-minute block of a soccer match
• Reserving a finishing kick — Middle-distance runners save the capacity to “shift up one more gear” for the final 200 m. In soccer, this corresponds to having enough left for decisive sprints after the 75th minute
• Dialogue with lactate — Tucker & Noakes’s (2009) Central Governor model holds that the brain regulates perceived fatigue anticipatorily. Experiencing in middle-distance training that “there is more beyond the pain” enables a soccer player to push past perceived fatigue during a match

In practical terms, running 400 m intervals as “pacing practice” is highly effective. Set a target time and repeat intervals while keeping each lap within one second of the target. This recalibrates your internal clock. The precise pace-sense you develop translates into the ability to judge instantly during a match whether your current intensity is sustainable for the time remaining.

Swimming is not a sport where more effort automatically means more speed. As Toussaint & Beek (1992) demonstrated, doubling propulsive force in water increases speed by only a factor of 1.26, because drag scales with the square of velocity. That is precisely why elite swimmers obsess over how to swim fast while expending as little energy as possible.

Swimming’s Energy-Saving Principles and Their Soccer Counterparts

1. Stroke count (SWOLF) — A metric that quantifies efficiency as covering more distance with fewer strokes. In soccer the parallel is “reaching the optimal position with fewer steps”—economy of off-the-ball movement
2. Exploiting the drafting effect — In distance freestyle events, sitting behind the lead swimmer saves 10–20% of energy. In soccer, “riding a teammate’s run” through coordinated combination play reduces individual energy expenditure
3. Push-off and glide — The wall push-off followed by streamlining after a turn is the most energy-efficient form of propulsion in swimming. In soccer the analogy is using momentum in your first touch—“flowing with the ball” rather than fighting against it

The pacing swimmers use in the 1500 m freestyle follows a near-negative-split template: hold back in the first 100 m, maintain an even pace through the middle, and lift in the final 100 m. Craig & Pendergast (1979) reported that at world-record level the last 100 m was the second-fastest split of the entire race. This is numerical proof of the effectiveness of reserving energy for a decisive finish.

Sample Weekly Pacing Program (U-15 to U-18)

• Monday (recovery day) — 30 minutes on the indoor trainer, strictly below heart-rate Zone 2. Build the feel for a recovery pace. Target RPE: 3–4 out of 10
• Wednesday (threshold day) — 5 × 400 m tempo runs. Keep each lap within one second of the others. Engrain pace consistency into your body
• Friday (economy day) — 30 minutes of swimming. Hold a constant stroke count throughout, then lift the pace for the last five minutes only. Experience generating speed with minimal effort
• Match-day minus one — 10 minutes of mental rehearsal. Divide the 90 minutes into six 15-minute blocks and assign a target RPE to each (e.g., 4-5-5-6-5-7)

In-Match Pacing Awareness Checklist

1. Kickoff to 15 min — RPE 4–5. Do not ride the opening adrenaline rush. Use positioning to defend and suppress unnecessary sprints
2. 15 to 45 min (mid-to-end of first half) — RPE 5–6. Maintain an even pace aligned with the team’s rhythm. Limit attacking runs to clear-cut chances
3. Halftime — Hydrate, take on carbohydrates, and review the plan for the next 45 minutes. Reflect on first-half RPE and fine-tune second-half strategy
4. 45 to 75 min — RPE 5–6. The discipline phase. Endure this 30-minute stretch and you will have reserves left for the finish
5. 75 to 90 min — RPE 7–8. Time to empty the tank. Commit fully to every sprint and exploit the opponent’s fatigue

According to Tucker & Noakes’s (2009) Central Governor theory, the brain unconsciously forecasts remaining energy reserves and throttles exercise intensity accordingly. This means there are moments when you “could still run” but “feel spent.” Repeated endurance-sport training sharpens your ability to recognize the gap between perceived fatigue and actual reserves—what might be called pacing intelligence.

Because pacing is a perceptual skill, it will not improve unless you put it into words and record it. In Footnote we recommend logging the following after each match: RPE by time block, whether you could still run in the second half, and whether you were able to produce decisive sprints when it mattered.

Pacing Review Template

• First-half RPE progression — For example, “RPE hit 6 by the 15th minute” or “Kept RPE at 4 through the 30th minute.” Record perceived intensity by time block
• Second-half changes — For example, “Legs still felt good after 60 minutes” or “Could not produce sprints from 75 minutes on.” Describe how performance changed concretely
• Pacing decisions — For example, “Consciously held back on pressing” or “Cut out unnecessary runs.” Log the intentional choices you made about energy management
• Cross-training insights — For example, “Used the pace-sense from Wednesday’s tempo run in the match.” Put into words how skills from other sports transferred

Review your logs weekly and compare the performance difference between matches where you “went out too hard” and matches where you managed your pace well. After a few matches’ worth of data, your personal optimal pacing pattern will start to emerge. This accumulation of self-analysis is what builds a reproducible, by-design approach to performing across 90 minutes.