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Asphalt vs. Post-Tension Concrete Courts

Asphalt vs. Post-Tension Concrete Courts

Choosing the Right Surface: Asphalt vs. Post-Tension Concrete

When you’re investing in a new athletic facility — whether it’s for a high school, a municipal park, or a private club — the most critical decision you’ll make isn’t the color of the paint or the height of the fence. It’s what lies underneath the surface.

At Byrne & Jones Construction, we’ve been building tennis and pickleball courts across the Midwest since 2010, completing over 1,400 projects for schools, universities, sports complexes, and parks. In that time, the single question we hear most often from facilities directors and athletic administrators is: “Should we go with asphalt or post-tension concrete?”

It’s the right question to ask — and it deserves a detailed, honest answer. This guide walks you through everything you need to know: how the two foundations are built, how they perform over time, what they cost, and how to decide which is right for your facility.

Already know which surface you want? Request a quote for tennis court construction or pickleball court construction and our team will get back to you.

The Four Factors That Should Drive Your Decision

Before we compare the two options head-to-head, it helps to understand the four variables that should shape your choice. Every facility is different, and the “right” answer depends on your specific situation.

1. Budget

How you plan to allocate funds between initial construction and long-term maintenance matters enormously. Asphalt is less expensive upfront, but that gap narrows — and eventually reverses — over time. If your capital budget is tight today but your maintenance budget has room to grow, asphalt may work. If you’d rather make a larger one-time investment and minimize future expenses, post-tension concrete is the better value.

2. Expected Lifespan and Replacement Cycle

How long do you intend to use these courts before a full rebuild? An asphalt court typically requires major rehabilitation within 15–20 years. A post-tension concrete court can deliver 30–40+ years of performance with minimal intervention. For facilities planning to be in place for decades, this difference is significant.

3. Maintenance Capacity

What is your facilities team’s bandwidth and budget for ongoing upkeep? Asphalt courts require more frequent attention — crack sealing, patching, and periodic resurfacing that can disrupt court availability and schedules. Post-tension concrete nearly eliminates structural maintenance, freeing up your team’s time and budget for other priorities.

4. Performance Goals

What playing experience do you want to deliver to your athletes? Both surfaces use the same acrylic top coat, so the visible finish is identical. The difference is in how the foundation behaves under players’ feet over time — and how consistently level and crack-free it stays through Midwest winters, freeze-thaw cycles, and years of heavy use.

Asphalt Courts: The Traditional Approach

Asphalt has been the standard tennis court foundation for decades, and for good reason: it’s a proven material, widely available, and less expensive to install than concrete. Understanding both its strengths and its limitations is essential to making an informed choice.

How It’s Built

An asphalt tennis court uses multiple compacted layers of asphalt paving to create the foundation — the same material used in road construction. These layers are graded carefully to achieve the proper slope for drainage, then topped with a cushioned acrylic surface system that provides the final playing color and texture.

The Pros of Asphalt

Lower upfront investment. Asphalt courts generally cost 20–30% less to install than post-tension concrete courts. For multi-court projects, that upfront savings can be substantial. Expect a general market range of approximately $60,000–$90,000 per court for a properly built asphalt installation, depending on scope, site conditions, and region.

Wider contractor availability. Because asphalt is a common construction material, there are more contractors with the general capability to pave it. However, tennis court construction requires specialized grading expertise — not all asphalt contractors are qualified to build courts. Always look for builders with ASBA certification or recognition for sports court work.

Familiar playing surface. When new, asphalt provides a classic playing feel that athletes are accustomed to. The acrylic surface applied on top is the same product used on post-tension courts, so color and texture are essentially identical at installation.

The Challenges of Asphalt

Cracking is a matter of when, not if. Asphalt is a flexible pavement — it moves with the ground beneath it. In the Midwest, where freeze-thaw cycles create significant ground movement, this flexibility becomes a liability. Facilities should expect to address minor cracking and settling within the first 5–7 years, requiring crack sealing and potentially patching to maintain a quality playing surface.

Ongoing maintenance disrupts schedules. Every few years, courts will need crack filling, leveling, and recoating. This isn’t just a cost — it takes courts out of service, often at inconvenient times. For schools or facilities with year-round athletic programming, repeated maintenance outages add up.

Lifespan is limited. An asphalt court foundation typically delivers 15–20 years before major rehabilitation is needed. At that point, you’re looking at either a significant structural overlay or a full tear-out and rebuild.

Higher long-term cost. When you account for crack repair, resurfacing cycles, and eventual major rehabilitation, asphalt can cost approximately $60,000 more per court over a 30-year period than post-tension concrete — despite its lower initial price tag. More on this in the cost analysis section below.

Lindbergh High School Recently Finished Tennis Courts
Naperville Tennis Courts

Post-Tension Concrete Courts: The Premium Option

Post-tension (PT) concrete has become the preferred foundation for competitive and long-term athletic facilities — and the reason comes down to engineering. This is not your standard concrete slab.

How It’s Built

Post-tension concrete uses a specialized engineering technique where high-strength steel cables are threaded through conduits within the concrete slab and tensioned — pulled tight — after the concrete has cured. This process puts the slab under constant internal compression. That compression is what makes it crack-resistant: the slab actively resists the ground movement, frost heave, and thermal expansion that cause traditional foundations to fail.

The Pros of Post-Tension Concrete

Crack resistance in any conditions. The tensioned cable system works against the forces that cause cracking. The result is a foundation that holds up through Midwest winters, poor soil conditions, and decades of use without the structural cracks that plague asphalt courts.

Lower long-term cost. While post-tension courts cost more upfront — typically in the range of $90,000–$120,000 per court — they require dramatically less maintenance over their lifetime. When you run the numbers across a 30-year window, PT concrete comes out approximately $60,000 per court less expensive than asphalt. That’s the crossover most facilities directors don’t see until it’s too late to change their decision.

Superior longevity. A properly installed post-tension concrete court can easily last 30–40+ years with minimal structural intervention. That’s a generational investment — the same courts your athletes use today could still be in excellent condition when the next generation of students arrives.

Minimal maintenance. You’ll resurface the acrylic top coat every 8–10 years to refresh color and texture, but the foundation itself requires virtually no structural maintenance. No crack filling. No patching. No worrying about freeze-thaw damage.

Perfect leveling and drainage. PT concrete allows for incredibly precise slope control during construction, ensuring better drainage and no standing water — a common problem on aging asphalt courts.

Preferred for competitive play. At the collegiate and competitive club level, post-tension concrete is the standard. If your facility hosts sanctioned tournaments or aspires to, it’s the appropriate surface.

The Challenges of Post-Tension Concrete

Higher upfront investment. The specialized materials and labor required for PT concrete command a premium at installation. For organizations with tight capital budgets, this can be a real constraint — which is why the phased-construction approach (building courts in stages across budget years) is a strategy worth considering.

Requires specialized expertise. Post-tension concrete must be installed by a contractor with the specific training and certification to work with tensioning systems. This is not a job for a general concrete contractor. At Byrne & Jones, we have certified PT concrete specialists on staff — but when evaluating any bidder, always verify this credential.

Longer cure time. Concrete requires a 28-day cure period before the acrylic surface can be applied. This extends the total project timeline compared to asphalt, which can be surfaced much sooner after paving.

Simpson College Post-Tension Concrete Courts

The Third Option: Crack Fill and Recolor (The Band-Aid)

Sometimes facilities come to us with courts that are showing their age — widespread cracking, fading color, and an uneven surface — but the capital budget for a full reconstruction isn’t available yet. In those situations, a crack fill and recolor can buy time.

Here’s what you need to know: this is a cosmetic fix, not a structural one. Crack filling and recoating will improve the court’s appearance and playability in the short term, but it does not address the underlying foundation issues. You’re not resetting the clock — you’re adding 1–2 years to the existing lifespan, at best.

That said, it can be a reasonable bridge strategy if a capital project is already approved for a future budget year and you need to keep courts usable in the meantime. General cost ranges for crack fill and recolor run approximately $12,000–$18,000 per court depending on the extent of damage and number of courts in the project.

If you’re considering this option, we’d encourage an honest conversation about whether you’re delaying the inevitable — and whether the money spent on a band-aid would be better rolled into the down payment on a long-term solution.

Head-to-Head Comparison

Feature Asphalt Courts Post-Tension Concrete
Typical Cost Per Court $60,000–$90,000 $90,000–$120,000
Expected Foundation Lifespan 15–20 years 30–40+ years
Cracking Risk High — typically appears within 5–7 years Very low — cable system actively resists cracking
Ongoing Maintenance Crack sealing, patching, resurfacing every 7–10 years Acrylic resurfacing every 8–10 years only
30-Year Total Cost Higher — approx. $60K more per court Lower — despite higher upfront investment
Weather Resistance Vulnerable to freeze-thaw cycles Excellent in all climates
Structural Integrity Subject to shifting and cracking over time Highly stable — compression-engineered
Playing Surface Feel Slightly softer — flexible base Firm, consistent — preferred for competitive play
Contractor Availability More contractors available (verify court-specific certs) Requires specialized PT-certified installer
Best For Tight capital budgets with stable soil conditions Long-term investment, competitive play, minimal maintenance

Why “Cheaper” Isn’t Always Better: The Long-Term Cost Analysis

The most common mistake we see facilities make is treating court construction as a pure upfront cost decision. When you look at only the initial price tag, asphalt wins. But when you look at total cost of ownership over 20–30 years, the picture reverses.

Here’s why: asphalt courts require structural maintenance on a recurring basis. Crack filling every few years. A structural overlay or major resurfacing around year 10–12. Another round of repairs in years 14–16. And by years 18–20, you’re often looking at a complete tearout and rebuild — meaning you’re essentially buying the court a second time.

Post-tension concrete, on the other hand, requires only periodic acrylic resurfacing — a routine, relatively low-cost operation that refreshes the playing surface without touching the foundation.

The math converges around year 18–20. That’s when the cumulative cost of maintaining asphalt courts catches up with the higher initial investment in post-tension concrete. After that point, asphalt keeps getting more expensive while post-tension stays relatively flat. Over a 30-year period, that difference adds up to roughly $60,000 per court in additional costs for asphalt — even after its lower starting price is factored in.

One more consideration: if your site has poor soil quality, high clay content, or a high water table, the calculation shifts even further toward post-tension concrete. Asphalt foundations are particularly vulnerable to expansive soils that shrink and swell with moisture changes. Post-tension concrete’s compression engineering makes it substantially more resistant to those conditions. When soil conditions are challenging, we almost always recommend post-tension — asphalt simply cannot bridge those gaps without failing prematurely.

The Byrne & Jones Verdict

After building over 1,400 athletic facilities across the Midwest, our honest recommendation is straightforward:

Choose asphalt if: You have a strict capital budget constraint today, your soil conditions are exceptionally stable, and you have the facilities bandwidth and budget to manage recurring maintenance over the court’s life.

Choose post-tension concrete if: You want a once-and-done solution that delivers the best long-term value, the lowest maintenance burden, and the highest quality playing experience for your athletes — for 30 to 40+ years.

For most school districts, universities, and parks departments we work with, the long-term math and the desire to minimize ongoing disruption point clearly toward post-tension concrete. But we understand that every facility operates within real-world budget constraints, and we’ll always give you an honest assessment of both options — including scenarios where a phased approach (building courts in stages across multiple fiscal years) can help you get to a PT concrete solution without exceeding a single year’s capital budget.

Ready to Get Started?

If you’re planning a new court construction project or evaluating options for aging courts, we’d love to talk. Our team includes certified track and field builders and in-house design specialists who can assess your site conditions, walk you through the numbers, and build a proposal that fits your goals and budget.

Are Artificial Turf Fields Safe?

Are Artificial Turf Fields Safe?

Two athletes on a safe turf field

Are Artificial Turf Fields Safe For Athletes?

UPDATED MARCH 2026This post has been updated to include the California OEHHA Synthetic Turf Final Report (2026), one of the most comprehensive government-sponsored studies on turf safety to date.

If you’re an athletic director, parks director, or facility manager responsible for decisions about synthetic turf, you’ve fielded questions about safety. Is crumb rubber dangerous? What about PFAS? Should we be worried about injuries?

These are legitimate questions that deserve honest, evidence-based answers. Here’s where things stand.

The Crumb Rubber Question

The most persistent safety concern around synthetic turf involves crumb rubber infill made from recycled tires. Tire rubber contains polycyclic aromatic hydrocarbons (PAHs), volatile organic compounds (VOCs), and trace metals. The question is whether exposure during athletic use — breathing air near the surface, skin contact, incidental ingestion — presents meaningful health risks.

A multi-year EPA study concluded that chemicals in crumb rubber fields were present at levels below thresholds of concern for typical athletic use. The American Cancer Society reviewed the available literature and reached the same conclusion: the evidence does not support elevated cancer risk from playing on synthetic turf.

Webb City High School

The California OEHHA Study: The Most Rigorous Government Research Yet

In 2026, California’s Office of Environmental Health Hazard Assessment (OEHHA) released the most thorough government-sponsored crumb rubber study ever conducted. California sets some of the country’s most protective environmental health standards — that context matters when you read the findings.

OEHHA and Lawrence Berkeley National Laboratory collected samples from 35 randomly selected synthetic turf fields across California, spanning a range of field ages and climate conditions. They measured chemicals in the air during actual athletic play, analyzed crumb rubber samples, and assessed exposure across multiple routes: inhalation, skin contact, and ingestion. The study modeled exposure for soccer players — the group with the highest contact with the field surface — as well as coaches, referees, and spectators.

Turf Field Safe - Study Graphic

What the OEHHA Study Found

Overall conclusion: No significant health risks to players, coaches, referees, or spectators were identified from exposure to crumb rubber infill.

Athletes and coaches: Chemical exposures measured during play were below levels of concern across all exposure routes.

Spectators: No meaningful health risk identified.

Source: OEHHA Synthetic Turf Study, California Office of Environmental Health Hazard Assessment (2026).

Why This Study Carries Extra Weight

Most safety studies get dismissed as industry-funded or criticized for limited scope. The OEHHA study is neither. It was conducted by a state regulatory agency, independently funded, designed specifically to answer community health questions, and peer reviewed by a Scientific Advisory Panel. The fact that it came from California — which sets some of the nation’s most protective chemical exposure standards — gives it credibility that studies from less rigorous jurisdictions don’t have.

The study doesn’t end the conversation. OEHHA noted that research on synthetic turf continues and that the precautionary principle remains reasonable for families with very young children on sidelines. The industry’s ongoing shift toward alternative infills — TPE, organic infills, sand — reflects responsible progress. But for the core question — is it safe for athletes to play on a properly constructed synthetic turf field — the weight of evidence, including this 2026 study, says yes.

The PFAS Issue

PFAS (per- and polyfluoroalkyl substances) are synthetic chemicals used in a range of products, including some turf backing materials and infill components. The regulatory environment around PFAS is evolving, and the health concerns are real.

The industry is responding. Many turf manufacturers have committed to PFAS-free product lines or are actively eliminating PFAS from their products. When evaluating turf systems, ask manufacturers specifically about their PFAS status and request documentation of any certifications. It is a question worth asking, and any reputable manufacturer should be able to answer it clearly.

This is an area where working with a turf-neutral contractor matters. Byrne & Jones works with a large number of nationally recognized turf manufacturers and will get you just the right surface for your program. Our job is to understand your facility’s needs, your community’s concerns, and your budget — and then help you identify the system that best meets all three. That includes asking the hard questions about PFAS on your behalf.

Safe Turf Installation Being Performed by Byrne & Jones Sports Crews

How to Have This Conversation With Your Community

Transparency works. Acknowledge that community members have legitimate questions, then walk through the actual research — including the 2026 OEHHA study, which is the most credible independent analysis available. Share the specific certifications and testing data for the system you’re considering.

Parents and community members who feel informed are far more likely to support a project than those who feel their concerns are being dismissed. The evidence supports synthetic turf as a safe choice for athletic use when the right system is selected and properly installed.

Talk to Someone Who Builds These Fields

The questions parents, school boards, and community members are asking about synthetic turf are ones we answer every day. If you want to talk through what the research means for your specific facility — or just need help making the case to your community — we’re glad to help. 

6 Things to Know Before Building a Pickleball Court

6 Things to Know Before Building a Pickleball Court

Building a Pickleball Court
Untitled design

6 Things to Know Before You Decide to Build a Pickleball Court

In a pickle about what to do to stay active but also looking to enjoy time with your friends & family? Then you should consider trying out pickleball! 

It has been reported that this trendy sport has increased in popularity over 85% in 2023. This is even after the sport saw major growth in 2020-2022. Now is the perfect time to learn more about the sport. In the guide below, we will walk you through everyting you need to know before building a pickleball court!

Whether you’re a homeowner looking to create a fun backyard activity or a business owner interested in offering pickleball to your customers, building a pickleball court can be a great investment. However, before you start construction, there are several important factors to consider to ensure that your court is safe, durable, and enjoyable to play on. In this blog, we’ll discuss six key things you need to know before building a pickleball court.

1. What is pickleball?

Pickleball is a combination of tennis, badminton, and ping-pong that can be played as doubles or singles. This sport can be played indoor or outdoor, and the only equipment needed is a court, net, paddles, and a ball.

It is typically played on a court that is similar in size to a doubles badminton court, with a net that is similar in height to a tennis net. The game is played with a lightweight paddle and a plastic ball with holes. The trending sport is often played as a recreational activity in parks, community centers, and other public spaces.

2. What are the dimensions of a standard pickleball court?

The court shall be a rectangle 20 feet wide (6.10 m) and 44 feet long (13.41 m) for both singles and doubles matches.

A total playing area 30 feet wide (9.14 m) and 60 feet long (18.28 m) is the minimum size that is recommended. A preferred 10-foot (3.05-m) surrounding margin measures 40 feet (12.19 m) by 64 feet (19.51 m).

Court measurements shall be made to the outside of the perimeter and non-volley zone lines. All lines should be 2 inches (5.08 cm) wide and the same color, clearly contrasting with the color of the playing surface.

Check out the graphic below to get a better idea of what the dimensions of a pickleball court look like!

Pickleball Court Dimensions 1024x585 1

3. What are the different types of Pickleball Court playing surfaces?

  • Asphalt
  • Concrete
  • Turf

Asphalt courts are faster to construct, lower initial cost, and need more frequent maintenance. Concrete courts are more durable, low maintenance, and crack resistant. The biggest drawback to asphalt courts is that they crack (so may concrete). The difference is the concrete cracks don’t grow as wind as asphalt cracks. Asphalt can crack as wide a 2 to 4 inches. Post-tension will not allow the crack to widen, by keeping it compressed. An alternative playing surface to hard court surfaces that has gained popularity is an artificial turf-type surface. This option provides a crack-free surface that plays similarly to a real court, making it an excellent choice for those seeking an alternative to traditional hard courts.

If you are interested in learning more about the different types of pickleball court playing surfaces, you can read more in this blog we wrote.

4. How do you prepare the site for the construction of a Pickleball Court?

Before starting the construction of a pickleball court, it’s important to prepare the site properly. Here are some key steps to follow to ensure a successful construction process:

Evaluate the site: The first step is to evaluate the site where you plan to build the court. Look for a flat area that is large enough to accommodate the court size you desire. Check for any obstacles such as trees, rocks, or roots that may need to be removed.

Clear the site: Once you have chosen the site, clear it of any debris or vegetation. Remove grass and other vegetation from the site, and level the ground if necessary. This will ensure a stable and even surface for the court.

Mark the court boundaries: Use stakes and string to mark the boundaries of the court. Make sure that the dimensions of the court are accurate and that the lines are straight and properly aligned.

Prepare the base: The base is the foundation of the court, and it needs to be firm and stable. To prepare the base, first remove any soft or loose soil. Then, add a layer of crushed stone or gravel and compact it with a plate compactor. Finally, add a layer of fine gravel or crushed stone and again compact it.

Install the fencing: Once the base is prepared, you can install the fencing around the court. The fencing should be at least 10 feet high, and it should be made of a durable material such as chain link.

Install the court surface: Finally, install the surface of the court. There are several options to choose from, including asphalt, concrete, or specialized pickleball court surfacing. Make sure to choose a surface that is durable, slip-resistant, and provides proper ball bounce.

By following these steps, you can prepare the site for the construction of a high-quality pickleball court. With proper preparation, your court will be a safe, durable, and enjoyable playing surface for years to come.

5. What are the rules of pickleball?

Serving: The server must stand behind the baseline and serve underhand, with the paddle below the waist. The serve must land in the opposite diagonal court and clear the non-volley zone, which is a seven-foot area near the net.

Scoring: Points are scored by the serving team when the receiving team fails to return the ball or hits it out of bounds. A game is played to 11 points, and the winning team must win by two points.

Non-volley zone: The non-volley zone, also known as the kitchen, is a seven-foot area on each side of the net. Players cannot enter the non-volley zone to hit a ball unless the ball bounces first or the player is outside the zone.

Faults: A fault is committed when a player fails to serve the ball over the net, hits the ball out of bounds, or steps into the non-volley zone and hits the ball. A fault results in a point for the other team.

These are the basic rules of pickleball, but there are also more specific rules regarding line calls, double hits, and other aspects of the game. It’s important to familiarize yourself with the rules before playing to ensure a fair and enjoyable game.

6. What are common pickleball phrases?

Volley: A volley in pickleball is the act of hitting the ball in the air before it is able to bounce.

Fault: A fault in pickleball is an action that stops play because of a rule violation. Various faults can include when a ball is hit out of bounds, a ball bounces twice before it is hit by a player, and when a ball is hit into the net.

Kitchen: A kitchen in pickleball is the non-volley zone of the court. It extends 7 feet from both sides of the net.

Rally: A rally in pickleball is when there is continuous play from the time that the ball is served until fault. 

Pickled: Getting “pickled” means losing a pickleball game 11-0.  

Plummer Family Park Pickleball Courts

Bonus: Why is pickleball called “pickleball” and why has it become so popular?

In 1965, Joel Pritchard, the inventor of pickleball, was vacationing at his summer home on the Bainbridge Island in Washington. Upon looking for a fun activity for their children, Pritchard, along with Bill Bell and Barney McCallum created the game of pickleball with some broken paddles and a whiffle ball. Pritchard’s wife, a fan of rowing, claimed that this sport reminded her of a “pickle boat in crew where oarsmen were chosen from the leftovers of other boats.” From there, the sport was named pickleball.

However, rumor has it that the game was named after Pickles, Pritchard’s dog that would chase after the ball during pickleball games.

Accelerated during the pandemic, pickleball has grown by 21.3% just in the past year according to the Sport and Fitness Industry Association (SFIA). A popular sport amongst older generations, this game is played on a smaller court compared to tennis, which allows for less movement. While this sport allows for less intensity than tennis, it is still a great way to exercise. Another appeal of this sport is the simplicity of the rules and ability to understand the game. Since one only needs a few pieces of equipment to play, this game opens itself to a window of people. People of all ages are able to find this sport enjoyable, and it serves as a great social activity. 

Convinced to build a pickleball court?  Give us a call at (314) 254-9766 or contact us here!

Fabric Structures: The Game-Changing Athletic Facility Solution for Schools

Fabric Structures: The Game-Changing Athletic Facility Solution for Schools

A picture of a design rendering of a fabric structure for Sterling High School.

Why Are Fabric Structures Trending At Schools Across The Midwest?

Fabric structures, also known as tension fabric structures (TFS), interestingly enough are becoming a preferred choice for schools, universities, and educational institutions across the United States as a cost-effective indoor athletic facility option for their students and athletic program. Inside of Air-Supported Domes and Frame-Supported Structures schools are creating multi-purpose recreational facilities that provide a number of different benefits to their athletes and student body.

The interest in these structures has grown significantly over the past year, with potential customers typically falling into four categories: colleges without multi-million dollar budgets for facilities, school districts seeking year-round practice spaces, municipalities looking for parks and recreation sites, and private entities recognizing the potential for indoor sports facilities to hold a variety of different events in.

Our team at Byrne & Jones Construction is currently involved in the installation of a Legacy Building Solutions, Frame-Supported Structure, at Sterling High School in Sterling, Illinois. The information in this blog is made up of information we have learned throughout this process as well as questions we have received from owners and additional interested schools.

What Are Tension Fabric Structures?

Tension Fabric Sports Structures are cost-effective, high-performance buildings that athletic departments are increasingly choosing for their versatility and speed of construction. These innovative facilities are defined by a durable, tensioned fabric membrane that acts as the roof and walls, all supported by an underlying framework, typically structural steel or air pressure (in the case of domes). Their key competitive advantage is the ability to create vast, column-free interior spaces, making them ideal for covering full-sized basketball courts, indoor soccer fields, or even entire track and field complexes.

Unlike traditional construction, these structures offer a wide spectrum of solutions, from quick-install seasonal domes to robust, permanent, fully engineered buildings designed to meet or exceed all local and state building and snow-load requirements. They deliver a well-lit, protected environment, often utilizing the fabric’s translucence to provide natural daylighting that reduces energy costs.

What Are The Different Types of Fabric Structures Available?

To best meet the diverse needs of an educational campus, fabric structures generally fall into three primary categories, each offering distinct advantages in terms of permanence, span size, and flexibility:

Air-Supported Domes: These structures utilize low internal air pressure to inflate and support the fabric membrane, much like a balloon. They are best known for providing exceptionally large, open spaces with no internal columns and are often used as removable, seasonal covers for sports fields during the colder months.

Frame-Supported Structures: This is the most common and versatile type. A durable fabric membrane is stretched over a pre-engineered, rigid frame (usually constructed of steel or aluminum trusses). These are considered permanent or semi-permanent buildings that provide clear-span interiors and are engineered to meet all local building codes for year-round use as gymnasiums, field houses, or covered playgrounds.

Tensile Structures: Often the most architecturally striking, these structures rely on the fabric membrane being highly tensioned over a system of steel masts and cables. The shape of the structure is derived from the forces applied to the fabric. They are typically used for more aesthetic applications like covered outdoor playgrounds, walkways, amphitheaters, and distinctive, open-air canopies. While the focus of this blog is not centered around Tensile Structures, Byrne & Jones has installed this specifc fabric structure at playgrounds across the Midwest.

Graphic of Tension Fabric Structure examples

Key Advantages of Fabric Sports Structures for Schools

Fabric sports structures offer compelling operational and financial benefits that make them an appealing alternative to conventional construction for schools:

1. Significant Cost Savings

Fabric structures provide a highly competitive starting price compared to traditional pre-engineered steel buildings. While basic fabric structures may range from $15 to $35 per square foot, pre-engineered steel often starts at $34+ per square foot.

For large-scale facilities like turf complexes or football fieldhouses exceeding 200 feet, schools can realize substantial savings, often between $1 million and $5 million compared to traditional construction methods.

2. Rapid Construction Timeline

A critical advantage is the speed of installation. Where traditional buildings can take a year or more to complete, fabric buildings are typically installed in months, not years. This efficiency is illustrated by projects like the Regis University Berce Athletic Center, which was completed in just four months. The installation labor is significantly reduced, requiring only $0.02$ to $0.03$ man-hours per square foot, which is substantially less than the $0.04$ to $0.07$required for steel sheeting.

3. Energy Efficiency and Natural Lighting

The specialized, translucent fabric covers are designed to maximize natural daylighting. Allowing sunlight to pour into the structure provides $16 to $19 light translucency, which can potentially reduce the school’s electricity usage for lighting by up to $90 during daytime hours. This abundance of natural light creates a superior, bright environment while delivering significant energy cost savings.

4. Versatility and Clear Span Design

These structures excel in providing optimal usable space. With a clear span design, they can achieve widths up to 300 feet and offer unlimited length, accommodating virtually any indoor sport. The absence of internal support posts or columns maximizes the playing area and eliminates obstructions that could interfere with athletic activities or viewing.

5. Durability and Low Maintenance

Designed for longevity, quality fabric buildings typically last 15 to 30 years or more. Fabric cover warranties often range from 10 to 25 years, and the supporting steel frames can last 30 to 50 years with proper care.

Unlike traditional facilities that require frequent painting or re-roofing, fabric structures require minimal maintenance, usually just occasional cleaning with soapy water.

Image of a tension fabric structure being built

Common Questions That Schools Have About Fabric Structures

When considering a major investment in a new facility, school administrators naturally have questions about compliance, durability, and practical use. Here are answers to the most frequent inquiries regarding fabric sports structures:

Building Codes and Permits

Are fabric buildings considered permanent structures, and do they meet building codes?

Yes. Modern fabric structures are fully engineered to adhere to the same stringent standards as traditional metal buildings, including compliance with the International Building Code (IBC) and other local regulations. Schools must partner with experienced manufacturers who custom-engineer the structure specifically for the site, taking into account critical factors like local wind loads, snow loads, and seismic requirements.

Weather Resistance

How well do these structures stand up to extreme weather, like high winds or heavy snow?

Modern fabric buildings are designed to handle challenging environments. They are engineered to withstand significant snow loads and high wind speeds often exceeding 100 mph. Unlike rigid materials that might crack under stress, the inherent flexibility of the fabric is an advantage, allowing the structure to flex and absorb environmental stresses without compromising its integrity.

Maintenance Requirements

What kind of ongoing maintenance do they require, and how expensive are repairs?

Maintenance is generally minimal. It primarily involves periodic inspections of the fabric integrity, checking the tension, and confirming connection points are secure. The fabric cover typically requires only occasional cleaning with mild soap and water. If damage occurs, fabric repair costs are remarkably low, averaging as little as $2 per square foot for repairs, compared to up to $7 per square foot for replacing damaged steel sheeting.

Foundation Options

What type of foundation is required, and does it limit where we can build?

Fabric structures offer significant flexibility in foundation options, making them adaptable to various site conditions and budgets. They can be mounted on traditional foundations like concrete blocks and pads. Alternatively, options like helical anchors allow for easier relocation, and even repurposed shipping containers can serve as foundations, offering the added benefit of on-site storage space.

What Are Schools Putting Inside of Their Fabric Structures?

Common athletic applications include:

  • Basketball & Volleyball Courts
  • Multi-Purpose Turf Training Field
  • Tennis & Pickleball Courts
  • Indoor soccer and football practice fields
  • Swimming pool enclosures (natatoriums)
  • Indoor Track Facility
Indoor Structure

Financial Considerations When Looking Into Fabric Structures

Beyond the initial, lower construction cost, the long-term financial picture of owning a fabric structure is a major benefit for schools. This section outlines how these facilities save money and how schools can secure funding.

Initial Investment vs. Long-term Savings

Fabric structures offer significant long-term operational savings that make the initial investment more appealing:

  • Sustained Energy Savings: The use of naturally translucent fabric covers maximizes natural daylighting, dramatically reducing the need for costly artificial lighting during the day.
  • Reduced HVAC Operating Costs: Many fabric membranes offer superior insulation efficiency compared to single-skin metal buildings, leading to lower heating, ventilation, and air conditioning (HVAC) operating expenses year-round.
  • Minimal Maintenance Requirements: As detailed previously, the lack of traditional roofing or painting needs translates directly into minimal long-term maintenance costs compared to conventional buildings.
  • Potential Tax Advantages: Depending on the classification by local municipalities, certain structures may qualify as temporary or relocatable assets, potentially offering beneficial tax and depreciation advantages that should be discussed with a school’s finance team.

Funding and Financing Options

Securing the capital for a new athletic facility requires exploring multiple avenues. Schools looking to fund their new fabric structure can explore various opportunities:

  • Grants for Community Development and Sports: Actively pursue federal, state, and local grants specifically aimed at improving school facilities, community outreach, or youth sports programs.
  • Local Business Sponsorships: Cultivate strong partnerships with local corporations and businesses who can provide corporate sponsorships in exchange for visible signage or naming rights on the new facility.
  • Cost-Sharing Partnerships: Partner with other community organizations, such as local sports leagues or municipal parks departments, to share both the upfront facility cost and long-term operating expenses.
  • Crowdfunding Campaigns: Launch community-driven campaigns to rally local support and raise funds, positioning the new facility as a shared asset benefiting the entire community.

Furthermore, many fabric structure manufacturers understand the capital constraints of schools and offer flexible financing solutions, including options for full financing or deferred payment plans.

Key Stages of Building a Fabric Structure

Planning Phase

Schools should begin by conducting a thorough needs assessment, identifying all sports and activities that will utilize the space. Consider both current and future program needs, as fabric structures can be expanded or modified more easily than traditional buildings.

Vendor Selection

Choose manufacturers with proven track records in educational facilities. Look for companies that offer comprehensive services including engineering, manufacturing, and installation. Ensure they can provide structures that meet all local building codes and can handle your region’s specific weather challenges.

Environmental Factors

Consider your local climate conditions carefully. While fabric structures perform well in various environments, specific features may be needed for extreme conditions. For instance, facilities in heavy snow areas may require steeper roof pitches or additional structural reinforcement.

Summary – What does this new option provide schools with?

Fabric structures represent a versatile alternative to traditional construction methods, especially for athletic facilities requiring large open span areas, offering rapid deployment with lower costs while delivering premium amenities and performance. For schools facing budget constraints, limited construction timelines, or the need for flexible, multi-purpose athletic spaces, these innovative structures provide a compelling solution that has already proven successful at educational institutions across the United States.

The combination of significant cost savings, rapid installation, energy efficiency, and long-term durability makes fabric structures an increasingly attractive option for schools looking to expand their athletic facilities without the financial burden and time commitment of traditional construction. As more schools successfully implement these solutions, fabric structures are likely to continue their growth as the go-to choice for educational athletic facilities.

Whether your school needs a practice facility for multiple sports, a competition venue, or a year-round training space, fabric structures offer a proven, cost-effective solution that can be operational in a fraction of the time required for traditional construction. The technology has matured to the point where these structures are no longer seen as temporary solutions, but as legitimate, long-term alternatives to conventional buildings that deliver superior value and performance.

The Complete Guide to Building Safe Artificial Turf Fields: From Base Construction to Sport-Specific Solutions

The Complete Guide to Building Safe Artificial Turf Fields: From Base Construction to Sport-Specific Solutions

How to Install the Safest Artificial Turf Field:
From Base Construction to Selecting The Correct Turf Product

Properartificial turf field installation involves far more than simply rolling out synthetic grass and adding infill. It’s a complex system where each layer plays a crucial role in safety, performance, and longevity. This comprehensive guide explores every component of artificial turf field construction, from the foundation up through sport-specific surface considerations.

Field Design and Safety Standards: Athletic Facility Planning

The journey to creating the safest possible artificial turf field begins long before any construction equipment arrives on site. At Byrne & Jones Sports Construction, our commitment to athlete safety starts with meticulous field design that adheres to and often exceeds the stringent standards set forth by the American Sports Builders Association (ASBA), National Federation of State High School Associations (NFHS), and local governing bodies.

Proper base preparation represents the most crucial aspect of safe artificial turf installation, with industry studies showing that over 80% of field failures trace back to inadequate base construction. Our systematic approach to base preparation ensures optimal safety and performance through carefully engineered layers and precise grading techniques.

Comprehensive Safety Zone Planning

Field safety extends well beyond the playing surface itself. Our design team carefully evaluates and implements critical safety zones – the spaces between playing areas and any fixed structures or obstacles. Professional field design requires careful consideration of multiple safety factors that many overlook. For football and soccer installations, we maintain minimum safety zones of 25 feet from the sidelines to any fixed objects, including benches, fencing, or light poles. End zones require even greater clearance, typically 30 feet or more, to protect athletes during high-speed plays.

For baseball and softball fields, our designs incorporate sophisticated safety calculations for optimal fence distances, dugout placement, and bull pen locations. We understand that each sport presents unique safety considerations – from lacrosse balls traveling at high velocities to soccer players running at full speed beyond touch lines. Our comprehensive approach to safety zone planning helps prevent dangerous athlete collisions with structures or equipment.

Strategic Equipment and Infrastructure Placement

Field safety depends heavily on the thoughtful positioning of essential equipment and infrastructure. Our designs carefully consider:

The placement of athletic equipment such as goal posts, soccer goals, and baseball backstops requires precise engineering to ensure proper anchoring while maintaining safe playing surfaces around mounting points. Complex drainage systems, access points, and utilities must be positioned to avoid creating potential hazards during play. Lighting structures, scoreboards, and other tall elements need strategic placement to maximize safety while maintaining optimal visibility.

Compliance with Governing Body Requirements

Our design process meticulously incorporates standards and requirements from multiple governing bodies:

The ASBA provides detailed specifications for field dimensions, surface slopes, and safety zones that form the foundation of our design process. We integrate NFHS requirements for specific sports, ensuring our fields meet or exceed all competition standards while maintaining maximum safety. Local building codes and ordinances often add additional safety requirements that we carefully weave into our comprehensive designs.

Multi-Sport Consideration and Flexibility

Modern athletic facilities often need to accommodate multiple sports, requiring sophisticated design solutions to maintain safety across different configurations:

Our design team employs advanced planning techniques to ensure safe conversion between sports while maintaining appropriate safety zones for each configuration. We carefully consider line placement and field markings to prevent confusion and potential safety issues during play. Sophisticated drainage designs account for varying patterns of wear and stress across multiple sport configurations.

Base Construction: The Foundation of Safe Artificial Turf Installation

Professional Soil Analysis and Site Preparation

The foundation of a safe artificial turf installation begins long before the first piece of turf is laid. Our engineering team starts every project with a comprehensive soil analysis to ensure long-term stability and safety. Through extensive geotechnical investigation, we evaluate soil composition, stability, and drainage characteristics. This critical first step allows us to design a base system that will maintain its structural integrity and performance characteristics throughout the field’s lifetime.

Proper base preparation represents the most crucial aspect of safe artificial turf installation, with industry studies showing that over 80% of field failures trace back to inadequate base construction. Our systematic approach to base preparation ensures optimal safety and performance through carefully engineered layers and precise grading techniques.

Advanced Base System Construction

The construction of a proper base system follows a carefully engineered sequence that transforms unstable ground into a precise, high-performance foundation. Our process begins with thorough subgrade preparation, where we remove all organic materials and unsuitable soils that could compromise field stability. Through careful chemical treatment of expansive soils when necessary, we establish a stable platform for subsequent layers.

The aggregate base system we install consists of multiple precisely engineered layers. We begin with a primary base layer of carefully selected large aggregate, typically 6-8 inches deep, which provides essential drainage and structural stability. This foundation supports a secondary layer of crushed stone, meticulously graded to create a smooth, stable surface for upper layers. The final finishing layer, composed of fine aggregate, achieves the precise grades required for optimal field performance and safety.

Engineered Drainage Systems

Proper drainage forms an essential component of safe artificial turf installation, directly impacting both player safety and field longevity. Our engineered drainage solutions incorporate advanced design principles that ensure consistent field performance in all weather conditions. By implementing a combination of perimeter collector drains and internal drainage patterns, we create systems that maintain optimal playing conditions while preventing the structural issues that can compromise field safety.

Advanced Shock Pad Systems: The Critical Safety Layer Underneath Turf

Understanding Shock Pad Technology in Modern Turf Installation

The installation of a high-performance shock pad system represents one of the most significant safety innovations in modern artificial turf construction. Acting as a sophisticated impact absorption layer, professional-grade shock pad systems provide consistent force reduction across the entire playing surface, dramatically reducing the risk of traumatic brain injuries and other impact-related concerns. Our experience has shown that fields incorporating premium shock pad systems consistently outperform traditional installations in both safety metrics and long-term performance.

Pre-fabricated Shock Pad Solutions

In our extensive experience installing safe artificial turf fields, pre-fabricated shock pad systems have emerged as the gold standard for professional and high-level sports installations. These engineered panels, typically manufactured from high-grade polypropylene or polyethylene foam, provide remarkably consistent shock absorption characteristics across the entire playing surface. The controlled manufacturing process ensures uniform performance, with thickness ranging from 14mm to 25mm depending on specific sport requirements and safety goals.

The investment in pre-fabricated shock pad systems, while representing a significant portion of initial construction costs at $4.50 to $7.00 per square foot installed, delivers exceptional value through superior safety performance and extended lifespan. These systems routinely survive multiple turf carpet replacements, often lasting 20-25 years or more. For a standard football field, this translates to an investment of approximately $240,000 to $375,000 – a cost that, when amortized over the system’s lifetime and considered against potential liability and injury-prevention benefits, represents a sound investment in athlete safety.

In-Situ Shock Pad Installation

While pre-fabricated systems offer premium performance, in-situ shock pad installations provide an alternative solution for certain applications. These systems, poured on-site using specialized equipment, combine rubber granules with polyurethane binders to create a continuous elastic layer. Though installation costs typically run 15-20% lower than pre-fabricated systems, the performance characteristics require more stringent quality control during installation to ensure consistent safety performance across the entire field.

Critical Safety Performance Metrics

Our commitment to safety drives us to rigorously test and verify shock pad performance through multiple standardized measurements. G-max testing, the industry standard for measuring impact absorption, must consistently show values between 95 and 165 across all test points. Fields measuring above 165 G-max present increased risk for concussions and other impact-related injuries – a situation we actively prevent through proper shock pad selection and installation.

The Head Injury Criterion (HIC) provides another crucial measurement of safety performance. Premium shock pad systems should achieve HIC scores below 1000 at fall heights relevant to the intended sports use. Our preferred systems typically achieve safe HIC scores at heights of 1.4 meters or greater, providing superior protection for activities involving player falls and tackles.

Long-term Performance and Maintenance

The installation of a premium shock pad system delivers significant long-term benefits through reduced injury rates and consistent performance characteristics. Field data indicates up to a 40% reduction in reported injuries compared to fields without high-performance shock pad systems. This dramatic improvement in safety metrics often results in substantial savings in liability and insurance costs over the field’s lifetime.

While shock pad systems require minimal maintenance compared to other field components, our installation process includes comprehensive documentation and testing protocols to ensure consistent performance throughout the system’s lifetime. Regular inspection procedures monitor seam integrity, drainage performance, and impact absorption characteristics, allowing early identification and correction of any developing issues.

Turf Selection: Selecting the Right Turf for Maximum Safety

The science of artificial turf installation demands a sophisticated understanding of how different turf systems perform for specific sports applications. Our decades of experience have shown that no single turf system provides optimal performance across all athletic applications. The selection of appropriate turf components – from fiber types to infill systems – must be precisely tailored to each sport’s unique demands and safety requirements.

Sport-Specific Turf Selection for Maximum Safety

In football and soccer installations, our engineers typically specify systems with fiber heights of 2-2.5 inches and face weights between 36-42 ounces per square yard. These specifications create the ideal balance between stability for quick directional changes and appropriate shock absorption for tackles and falls. For these high-impact sports, we often recommend advanced monofilament or hybrid fiber systems that maintain their resilience under intensive use while providing natural ball roll characteristics.

Baseball and softball fields present unique challenges that demand specialized turf solutions for different areas of play. Infield areas require precisely engineered surfaces with shorter pile heights (1-1.5 inches) and higher face weights (45-50 ounces per square yard) to ensure consistent ball bounce and true roll characteristics. Our outfield installations utilize different specifications, incorporating standard 2-inch pile heights with modified infill ratios specifically designed to accommodate sliding catches and quick sprints.

Advanced Infill Systems: The Foundation of Field Safety

The infill system represents one of the most critical components in creating a safe artificial turf installation. Acting as the equivalent of natural soil, our carefully engineered infill systems determine field firmness, playing speed, ball behavior, and most importantly, player safety. The sophistication of modern infill technology allows us to offer five distinct categories of infill solutions, each providing specific performance characteristics and safety benefits.

Coated Sand Systems

Our advanced coated sand systems utilize uniformly sized natural sand with sophisticated acrylic, polyefin, or elastic coatings. These full-depth systems excel in providing consistent playing surfaces while maintaining significantly cooler surface temperatures compared to traditional rubber infills. When properly installed with our recommended shock pad systems, coated sand installations provide superior safety characteristics and long-term stability. Though representing a premium investment of $150,000 to $200,000 per field (including shock pad), these systems deliver exceptional value through reduced maintenance requirements and enhanced safety performance.

Coated SBR Rubber Solutions

For installations requiring enhanced impact absorption, our coated SBR rubber systems provide an economical yet effective solution. By coating traditional SBR rubber with virgin EPDM rubber, we create an infill system that delivers consistent performance while minimizing maintenance requirements. These systems typically add approximately $40,000 to project costs but provide excellent value through their durability and straightforward maintenance protocols.

Thermo Plastic Elastomer (TPE) Applications

Our TPE infill solutions offer advanced temperature control and aesthetic flexibility. While similar in size to SBR rubber, these harder, rounder particles create unique performance characteristics when combined with standard synthetic turf sands. TPE systems can achieve up to 10 percent temperature reduction compared to traditional infills, though they typically require shock pad integration for optimal safety performance.

Virgin EPDM Rubber Systems

As the industry’s most widely adopted premium infill solution, virgin EPDM rubber systems provide exceptional performance characteristics. Our EPDM installations combine unrecycled rubber with precisely graded synthetic turf sands to create stable, safe playing surfaces. While shock pad integration is recommended, these systems deliver consistent performance and maintain their characteristics throughout their service life.

Organic Infill Solutions

For installations prioritizing environmental considerations and temperature control, our organic infill systems utilize sophisticated combinations of cork, walnut shells, coconut fiber, and similar materials. These advanced systems can reduce surface temperatures by up to 50 degrees compared to traditional infills while providing playing characteristics that closely mirror natural grass. Though requiring irrigation systems and specialized maintenance protocols, organic infills represent the cutting edge of sustainable artificial turf technology.

Performance Testing and Quality Verification

Field safety certification requires comprehensive testing protocols that verify every safety and performance parameter. Our testing program includes:

Impact Absorption Testing

Every field installation undergoes rigorous G-max testing at multiple locations to ensure consistent shock absorption characteristics. Our safety standards require G-max values between 95 and 165, with particular attention paid to high-use areas such as center field and goal mouths. Fields exceeding these values require immediate attention and adjustment of infill levels or shock pad systems.

Surface Performance Verification

We conduct extensive testing of critical performance characteristics including:

  • Rotational resistance measurements to ensure proper cleat interaction
  • Ball roll distance testing for sport-specific requirements
  • Ball rebound height verification
  • Surface hardness evaluation
  • Comprehensive infill depth mapping

Conclusion: The Expert Approach to Safe Artificial Turf Installation

Creating the safest possible artificial turf field requires deep expertise in every aspect of sports field construction. From initial site evaluation through final performance testing, each decision impacts the safety and performance of the finished installation. Our comprehensive approach to artificial turf installation integrates advanced engineering principles with proven construction techniques to create fields that consistently exceed safety standards while delivering optimal athletic performance.

Through careful attention to base construction, proper drainage design, appropriate turf selection, and precise infill installation, we create artificial turf fields that provide safe, consistent playing surfaces for athletes at all levels. Regular maintenance and testing programs ensure these safety characteristics persist throughout the field’s lifetime.

Get Started with your next project by speaking with our Sports Division

Ready to start planning your safe artificial turf field installation? Contact our team of artificial turf specialists for a comprehensive site evaluation and detailed proposal tailored to your specific needs. Our experts will guide you through every step of creating a safe, high-performance athletic facility that will serve your community for years to come. If you are interested in learning more about designing, building, or maintaining a safe turf field, please reach out to us at (314) 254-9766. 

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Missouri’s Most Elite Soccer Facilities

Missouri’s Most Elite Soccer Facilities

Where Champions Train – Missouri’s Most Elite Soccer Facilities

Washington University Orthopedics High-Performance Center

Name: St. Louis City Practice Fields
Location: St. Louis, MO
Fields:
Three Fields
Website: https://www.stlcitysc.com/

Missouri Soccer Park

Name: Missouri Rush Soccer Complex
Location: Boonville, MO
Fields:
Seven Fields
Website: https://bsaravens.org/mosoccerpark

Cottleville City Fields

Name: Cottleville City Fields
Location: Cottleville, MO
Fields:
Two Multi-Purpose Fields
Website: https://cottlevillecityfields.com

Missouri Rush Soccer Park

Name: Missouri Rush Soccer Comlpex
Location: O’Fallon, MO
Fields:
Four Fields
Website: www.morushsoccer.com/parkdetails

Swope Park

Name: Swope Soccer Village
Location: Kansas City, MO
Fields:
Nine Fields
Website: kcparks.org/places/swopesoccervillage/

SportPort International

Name: SportPort International
Location: Maryland Heights, MO
Fields:
Twelve Fields
Website: https://www.sportportintl.com/