Is the New Premier League…

Is the New Premier League…

Once thought to be fading from soccer, long-range goals are now the subject of debate: Are they diminished due to analytics or new coaching strategies? The consensus is clear: shots from a distance are less likely to score compared to closer attempts.

This insight stems from the concept of expected goals (xG). While it may seem obvious, it aligns with other straightforward analytical truths found in various sports. For instance, three points in soccer are superior to two, it’s easier to pass than to charge directly at defenders, and hitting home runs is advantageous. When players heed crowd calls to “SHOOT,” they risk squandering possession that could lead to better scoring opportunities.

As clubs have gradually adapted and improved their strategies, the memorable goals we relished back in December 2006 have drastically decreased.

In the 2008-09 season, the first year documented by Stats Perform, Premier League teams launched 45.7% of their attempts from outside the box. This season, that figure has plummeted to 32.5%, marking the second-lowest percentage recorded. In addition, the average shooting distance has reduced from 18.3 meters in 2008-09 to just 15.4 meters this season, equaling last season’s record low.

Compounding this trend is a distinct downturn in attacking play within the Premier League. Currently, teams average 4.03 attempts from outside the box per game—marking the lowest since the 2008-09 season and likely the lowest in the league’s history.

Still, you might recall Aston Villa‘s Morgan Rogers confidently scoring from distance early in the season. Or think of Liverpool‘s Dominik Szoboszlai, who appeared to flawlessly defy the laws of physics. And who could forget Fulham’s Kevin? Kevin!

Despite the decline in long-range shots, goals from outside the box (averaging 0.23 per team, per match) have maintained a steady, nearly 19-year trend. Simply put, when players attempt these long-distance shots this season, the likelihood of scoring is higher than in nearly all previous recorded seasons.

Several theories explain this phenomenon, often highlighting the interaction of tactics and player development. As teams focus on shooting from closer ranges, defenses may over-commit to blocking those attempts, inadvertently creating more space for long-range shots. Thus, those few players retaining their long-range shooting skills are taking advantage.

Alternatively, a more straightforward explanation arises from a notable change made by the Premier League this season: switching from Nike to Puma and introducing a new ball for the first time in 25 years. Perhaps the new ball has made shots easier to control while also being harder for goalkeepers to save.

To investigate this hypothesis, I reached out to a scientist in the Pacific Northwest, who then collaborated with colleagues in Japan. They tested various soccer balls in a wind tunnel, subjecting them to intense airflow.

The Physics of Set Pieces

In 2006, John Eric Goff experienced what only a few dedicated soccer fans in America hear: a lack of interest in soccer.

It wasn’t his friends or family urging him to stop; instead, it was the American Journal of Physics declining to engage with his work.

After obtaining his PhD, Goff initially focused on condensed matter theory and nonlinear optics—common pursuits for physicists. Yet while teaching at Lynchburg College, students approached him with sports-related projects. One such endeavor involved modeling cyclists in the Tour de France, while another sought to apply physics to evaluate the likelihood of soccer shots hitting the target. Their submission to the leading American journal was met with skepticism, stating there was “limited interest” in the sport of soccer.

Undeterred, Goff and his team submitted the paper to a European journal, where it was swiftly accepted, coinciding with the surge of excitement surrounding the 2006 World Cup.


Goff conducted wind tunnel tests comparing the Nike Flight ball (left) to the new Puma ball (right) to assess their flight performance.

Published in the European Journal of Physics, Goff established himself as the go-to expert for understanding how balls interact with athletes, tools, and environments. His work led to a book, “Gold Medal Physics: The Science of Sports,” and he soon found media opportunities like the infamous NPR segment titled “What Physics Says About Smooth Balls.”

The 2010 World Cup featured a notorious ball called the “Jabulani,” widely criticized for its unpredictable flight. Goalkeepers, players, and commentators expressed frustrations with its erratic behavior.

When kicked, a typical soccer ball adheres to physical laws; for instance, rightward spin makes it curve to the right. However, supermarket balls, which are more erratic in flight, resemble the bewildering movement seen during Keisuke Honda’s memorable free kick goal against Denmark during the same World Cup.