From Mexico City to New York, MSU turfgrass scientists are helping design the natural playing surfaces for all 16 FIFA World Cup 2026 stadiums—using decades of research to deliver elite-level consistency across three countries.
When millions of soccer fans tune in to watch the 2026 FIFA World Cup, they'll focus on spectacular goals, breathtaking saves, and unforgettable moments. Few will notice the meticulously engineered natural grass beneath the world's greatest players—a result that, according to Michigan State University researchers, will actually mean the project succeeded.
Behind every World Cup match lies years of scientific research, turfgrass engineering, and logistical precision led in part by Michigan State University (MSU) Professor John "Trey" Rogers III, whose work is helping create consistent playing surfaces across the tournament's unprecedented 16 host stadiums in the United States, Canada, and Mexico.
"It's engineered from the ground up," Rogers explained, describing the challenge of ensuring every stadium provides the same world-class playing experience despite dramatic differences in geography, climate, and stadium design.
Engineering Consistency Across Three Nations
The 2026 FIFA World Cup will be the largest tournament in FIFA history, spanning three countries and multiple climate zones.
Some stadiums are open-air facilities exposed to extreme heat, rain, and changing weather conditions. Others feature domes or artificial turf that must be temporarily converted into natural-grass fields to meet FIFA's demanding performance standards.
Rather than simply growing grass, Rogers and fellow turfgrass experts developed scientifically tested systems designed to deliver identical field performance regardless of location.
Their research determined:
- Specific grass species for varying climates
- Soil and root-zone specifications
- Surface reinforcement systems
- Harvest schedules
- Transportation timelines
- Recovery performance following multiple matches
The goal is simple—but extraordinarily difficult.
Every player should experience a virtually identical field whether competing in Boston, Dallas, Vancouver, Mexico City, Los Angeles, Atlanta, Miami, Seattle, or New York/New Jersey, where the championship match will be played.
A Project More Than 30 Years in the Making
For Rogers, the World Cup assignment represents the continuation of work that began during the 1994 FIFA World Cup.
Three decades ago, he helped solve one of soccer's most difficult agronomic challenges: creating a natural grass surface inside the Pontiac Silverdome, where sunlight was virtually nonexistent.
That pioneering research inspired one of his undergraduate students—John Sorochan—who would later become a nationally recognized turfgrass researcher at the University of Tennessee.
Years later, FIFA contacted Sorochan regarding preparations for the 2026 tournament.
His next phone call was to Rogers.
The collaboration reunited mentor and student for what has become one of the most ambitious playing-surface projects ever attempted.
Science Beneath Every Blade of Grass
Michigan State researchers emphasize they are not personally growing every field used during the tournament.
Instead, they developed the scientific blueprint that commercial sod farms across North America follow.
The research identified the specific turfgrass mixtures suitable for three distinct climate regions and determined how the grass should be cultivated, harvested, transported, and installed.
Much of the turf utilizes an advanced "sod-on-plastic" production system that preserves root integrity, allowing fields to become playable almost immediately after installation.
The process dramatically reduces recovery time and allows stadium operators to install FIFA-quality natural grass within days of competition.
Thousands of Miles of Precision Logistics
The engineering extends well beyond the laboratory.
Specialized sod farms in New Jersey, Colorado, North Carolina, and Washington are growing tournament grass to meet MSU's research specifications.
The finished turf will travel hundreds—sometimes thousands—of miles by truck before arriving at host stadiums, where crews must install complete playing surfaces under extremely tight schedules.
Field superintendents then tailor maintenance practices to local environmental conditions while preserving FIFA's uniform performance requirements.
Innovation That Could Change Stadium Design
Researchers believe many of the technologies developed for the 2026 World Cup will influence professional sports long after the tournament concludes.
Temporary natural-grass installations, advanced transportation methods, engineered turf systems, and climate-specific grass mixtures may allow more stadiums worldwide to host elite sporting events while maintaining high-performance natural playing surfaces.
The innovations could benefit professional soccer, American football, international competitions, concerts, and the operations of multipurpose stadiums for years to come.
Success Means Nobody Notices
Ironically, the greatest compliment the turfgrass research team can receive may be complete invisibility.
If the science works as intended, fans, broadcasters, and players will never think about the fields beneath their feet.
Instead, they'll simply watch the world's greatest athletes compete on surfaces designed to perform exactly the same from the opening kickoff through the championship final.
For Rogers, that's the ultimate measure of success.
When billions of viewers watch the 2026 FIFA World Cup, the world's attention won't be on the grass.
And that's exactly the plan.
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-- By James A. Wright
© Copyright 2026 JWT Communications. All rights reserved. This article cannot be republished, rebroadcast, rewritten, or distributed in any form without written permission.







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