Non Infill Football Grass

Category: Fake Grass

  • Maintenance: Artificial Turf vs. Natural Grass

    Natural grass follows a “grow and maintain” cycle

    A typical natural lawn may require:

    Planting → irrigation → mowing → fertilization → weed/pest management → aeration → seasonal recovery

    The exact programme varies considerably by grass species and climate.

    Non-infill turf follows a “install and maintain” cycle

    A typical artificial turf maintenance programme focuses on:

    Installation → cleaning → debris removal → drainage maintenance → localized repair

    This does not mean artificial turf is maintenance-free.

    Leaves, dirt, food, pet waste and other organic material still need to be removed, while drainage openings and seams should be inspected periodically.

    The difference is that maintenance is primarily surface and system maintenance rather than plant growth management.

    Water Consumption: Which Uses More Water?

    For many residential and landscaping applications, natural grass requires substantially more routine irrigation than artificial turf.

    However, the actual difference depends on:

    • Climate
    • Grass species
    • Irrigation efficiency
    • Rainfall
    • Lawn size
    • Seasonal conditions
    • Artificial turf cleaning requirements

    A non-infill lawn may require little routine irrigation, but it may still be rinsed periodically, especially in pet areas, dusty environments or hot climates.

    Therefore, “zero water” is not an appropriate universal claim.

    The more useful comparison is routine irrigation demand over the full operating period.

  • Why Are Non-Infill Turf and Natural Grass So Different?

    1. One Is a Manufactured Surface; the Other Is a Living System

    Natural grass is a biological system.

    Its performance depends on:

    • Sunlight
    • Temperature
    • Water availability
    • Nutrient availability
    • Soil structure
    • Root development
    • Grass species
    • Seasonal conditions

    Non-infill artificial turf does not have a biological growth cycle.

    Its performance instead depends on engineering factors such as:

    • Fiber polymer and construction
    • Pile height
    • Fiber density
    • Dtex
    • Backing
    • Tuft retention
    • Drainage
    • UV/weathering resistance
    • Installation quality

    This is why the maintenance philosophies are fundamentally different.

  • Final Answer: How Many Years Can Non-Infill Artificial Turf Last?

    A reasonable planning range for many applications is:

    Residential and landscaping: approximately 5–8 years or longer under suitable conditions.

    Community and moderate-use areas: approximately 4–7 years.

    High-use sports applications: approximately 3–6 years, with actual performance depending heavily on usage hours, product specification and maintenance.

    These numbers should not be treated as universal guarantees.

    The better way to estimate service life is to evaluate:

    UV/weathering performance + mechanical wear + backing durability + installation quality + drainage + usage intensity + maintenance + warranty

    If you are comparing non-infill turf products, don’t ask only “How many years does it last?” Ask the manufacturer to provide the test data and contractual warranty that explain why the product is expected to perform for that period.

    For projects seeking a combination of non-infill technology, international market experience and ongoing technical and environmental development, VivaTurf is a manufacturer worth considering alongside other qualified suppliers.

  • VivaTurf Non-Infill Artificial Turf: A Brand Worth Comparing

    If a project has a specific service-life target, VivaTurf is a manufacturer worth including in the procurement comparison.

    VivaTurf has developed non-infill turf systems for sports and landscaping applications, with product development focused on fiber construction, backing technology, drainage and long-term outdoor performance.

    The company has an international market presence spanning Europe, North America and other regions, while continuing to develop technologies related to non-infill and recyclable artificial turf systems.

    For customers comparing products based on durability, the most useful approach is to request the specific product’s technical documentation, including:

    • Yarn construction
    • Dtex
    • Tuft density
    • UV/weathering test data
    • Abrasion or wear test data where applicable
    • Tuft retention/backing strength
    • Water permeability
    • Recommended maintenance
    • Warranty conditions

    For professional projects, these product-specific documents are more useful than simply relying on a general statement that a turf product can “last 8 years” or “last 10 years.”

  • How Can You Extend the Life of Non-Infill Artificial Turf?

    Good maintenance does not make artificial turf last forever, but it can help preserve its intended performance.

    Keep the surface clean

    Remove:

    • Leaves
    • Mud
    • Organic debris
    • Food waste
    • Pet waste

    Accumulated debris can interfere with drainage and encourage biological growth.

    Keep drainage functioning

    Regularly inspect:

    • Drainage openings
    • Channels
    • Gutters
    • Low points

    Persistent standing water should be investigated rather than ignored.

    Avoid unnecessary chemical exposure

    Do not routinely use aggressive chemicals unless the manufacturer confirms compatibility.

    Control heavy localized traffic

    If one section receives substantially more traffic than the rest of the surface, appropriate maintenance and usage management can help reduce localized wear.

    Repair small defects early

    Small seam, edge or backing problems can become larger failures if they are left untreated.

  • What Standards Are Relevant to Turf Lifespan?

    For artificial turf, the applicable requirements depend on the intended application and market.

    In China, GB/T 20394 is relevant to certain sports artificial turf products and includes requirements and test methods covering various product characteristics.

    For European sports applications, relevant EN/DIN specifications may apply. For professional football, the FIFA Quality Programme provides a separate performance and testing framework for football turf.

    These systems should not be treated as interchangeable.

    For example, an outdoor landscaping product should not be judged solely using professional football requirements, while a professional football field should not be evaluated only using general landscaping criteria.

    The applicable standard should therefore be established in the purchase specification and contract before the product is supplied.

  • The Performance Triangle: How Parameters Shape the Pitch Experience

    1. Pile Height: The Balancer of Ball Speed and Footing Feel

    Professional soccer synthetic grass typically has a strictly defined pile height between 40mm and 60mm. This range is FIFA’s balance between simulating natural grass performance and ensuring the controllability of synthetic surfaces. 

    Impact on Ball Speed:

        Lower Pile (40-50mm): The ball interacts more with the fiber tips and more directly with the underlying infill, resulting in faster ball roll and more predictable trajectories. This suits a faster, possession-based style of play.

        Higher Pile (50-60mm): The ball “sinks” more into the fibers, experiencing greater friction and drag, slowing the ball speed slightly. However, the interaction is softer, potentially offering better control for aerial balls and rebounds.

        Link to FIFA Standard: FIFA quantifies this through the “ball roll distance” test. Certification requires the ball to roll 6-10 meters (indoor) or 4-10 meters (outdoor) on a specified slope. Pile height is a key design variable for meeting this standard.

    Impact on Footing Feel:

        Pile height directly influences the penetration depth of player studs and sliding characteristics. Taller fibers provide more space for studs to embed, potentially increasing rotational resistance (stress on the ankle) but also offering more solid support during sharp stops and turns. FIFA’s “rotational resistance” and “sliding distance” tests are directly related.

    Selection Guide:

        For Professional Matches / High-Intensity Training Pitches: Prioritize 50-60mm pile height. It offers better shock absorption (combined with infill), a feel closer to premium natural grass, and meets the requirements of most FIFA Quality Pro certified pitches.

        For Community / High-Frequency Use Pitches: Consider 40-50mm pile height. It is easier to maintain (less prone to matting), facilitates a faster game pace, and is often slightly lower in cost.

  • How to Choose Soccer Synthetic Grass for Professional Pitches

    How to Choose Professional Soccer Synthetic Grass Through Fiber Parameters

    When faced with dozens of soccer synthetic grass products all claiming to be “professional-grade,” how do you determine which one truly meets match requirements? The International Federation of Association Football (FIFA) certification is not a mysterious black box; its core standards are directly mapped to three key physical parameters: pile height, density, and fiber weight. Understanding how these parameters work together is the code to unlocking the selection of professional soccer synthetic grass. 

    Parameter Decoding: The Engineering Language Behind Grass Fibers

    Before diving in, let’s define three core terms:

    Pile Height: The vertical height of a single grass fiber from the backing to its tip, measured in millimeters (mm). It directly affects ball roll behavior and player traction depth.

    Density: The number of fiber tufts per unit area, measured in tufts per square meter (tufts/㎡). It determines the turf’s fullness, stability, and resilience.

    Fiber Weight: More professionally known as Decitex (DTEX), it refers to the weight in grams of 10,000 meters of fiber. It is the core metric for gauging fiber thickness, sturdiness, and wear resistance. A higher DTEX value indicates a thicker, more robust monofilament.

    These three parameters do not exist in isolation. They form a “performance triangle” that determines the pitch’s final behavior. A high-end turf product is necessarily a balance of these three parameters at high levels.

  • Fourth Ring: Recycled Application Innovation Workshops  

    Cross-industry collaboration platforms transforming synthetic turf materials into high-value products:  

    Construction Sector: – Outdoor flooring composite of synthetic turf plastics and wood fibers – UV-resistant, slip-resistant, service life over 15 years Landscape Gardening: – Wood-like boardwalks made from synthetic turf rubber granules and resin – Cushioned play mats for children’s playgrounds – Colored permeable tree pit mulch Sports Industry: – Ground surfaces for fitness training areas using recycled synthetic turf materials – Cushioning layer materials for school playgrounds – Surfaces for pet sports fields

    Construction Sector:  

    – Outdoor flooring composite of synthetic turf plastics and wood fibers  

    – UV-resistant, slip-resistant, service life over 15 years  

    Landscape Gardening:  

    – Wood-like boardwalks made from synthetic turf rubber granules and resin  

    – Cushioned play mats for children’s playgrounds  

    – Colored permeable tree pit mulch  

    Sports Industry:  

    – Ground surfaces for fitness training areas using recycled synthetic turf materials  

    – Cushioning layer materials for school playgrounds  

    – Surfaces for pet sports fields  

    Restructuring the Economic Model—From Cost to Value  
     

    Traditional Disposal Economic Burden (Standard Football Field):  

    – Landfill fees: 80,000 – 120,000 RMB  

    – Environmental compensation: 30,000 – 50,000 RMB  

    – Transportation costs: 20,000 – 30,000 RMB  

    – Total: 130,000 – 200,000 RMB (Pure Expenditure)  

  • The “Four-Ring Model” of Full-Chain Recycling  

    First Ring: On-Site Intelligent Assessment System  

    IoT-based assessment toolkit for synthetic turf:  

    – Handheld spectrometer: On-site analysis of material composition  

    – Drone multispectral scanning: Assessment of material uniformity across the field  

    – Blockchain traceability system: Records the entire lifecycle data of the synthetic turf 

    Output includes:  

    – Material recycling value index (0-100)  

    – Recommended optimal dismantling plan  

    – Estimated pre-treatment costs  

    Second Ring: Mobile Pre-Treatment Plant  

    Innovative “containerized” processing unit for synthetic turf:  

    20-foot standard container modification:  

    Front end: Automatic winding and primary cutting  

    Middle section: Grass fiber-granule vibration separation  

    Back end: Preliminary material cleaning and packaging  

    Processing capacity: 500-800㎡/day  

    Energy consumption: 30% of traditional plants  

    Advantages: Reduces transportation costs by 60%, especially suitable for urban center sites with synthetic turf.  

    Third Ring: Regionalized Fine Processing Centers  

    Fine processing facilities for synthetic turf located within a 100-kilometer radius of metropolitan areas:  

    Input: Pre-treated semi-finished products  

    Process: Deep cleaning → Fine sorting → Modification treatment → Pelletizing and molding  

    Output: Standard recycled materials directly used in manufacturing  

    Features: Modular production lines, quickly adjustable based on synthetic turf material type