1300 GSM 1500D 30×32 High-Strength Membrane Structure PVC-Coated Polyester Fabric

Modern architectural, industrial, commercial, and outdoor structures increasingly require materials that combine exceptional mechanical strength with long service life, weather resistance, design flexibility, and dependable fabrication performance. The 1300 GSM 1500D 30×32 High-Strength Membrane Structure PVC-Coated Polyester Fabric is developed for precisely these demanding conditions. Built with a dense 1500D polyester base fabric and a durable PVC coating system, this heavy-duty membrane material provides a balanced combination of tensile strength, tear resistance, dimensional stability, surface protection, and functional versatility.

With a finished weight of approximately 1300 grams per square meter, a nominal thickness of 1.00 millimeter, and reported tensile strength of 6000 N/5 cm in both machine direction and cross direction, the fabric is positioned as a high-performance solution for membrane structure roofs, large awnings, exhibition halls, stadium coverings, temporary buildings, industrial protection systems, and other applications where ordinary tarpaulin or lightweight architectural fabric may not provide sufficient structural reliability.

The fabric belongs to the Tent Fabric and Tarpaulin Fabric product category, but its potential applications extend far beyond conventional tenting. Its reinforced polyester construction and PVC coating make it suitable for permanent and semi-permanent structures, transport covers, industrial partitions, large advertising surfaces, sunshade systems, swimming pool covers, emergency shelters, and specialized protective products.

Manufactured by Zhejiang MSD Group Share Co., Ltd., a flexible materials producer established in 2002, this product benefits from a company infrastructure focused on product development, technical innovation, and diversified manufacturing. The company operates from Haining, Zhejiang Province, an important center for warp-knitted and coated textile production. Its wider product portfolio includes PVC films, flex banners, waterproof fabrics, mesh fabrics, drop stitch materials, ceiling films, tarpaulins, and other functional flexible materials.

Understanding the Construction of the Fabric

The performance of a membrane fabric depends on the interaction between its base textile, coating layers, surface treatment, production controls, and final finishing. In this material, the base fabric is made from polyester yarn with a denier specification of 1500D × 1500D. The high-denier yarn provides a strong internal framework, while the 30×32 construction indicates approximately 30 warp yarns and 32 weft yarns per inch.

The polyester scrim acts as the primary reinforcement. Unlike an unreinforced PVC sheet, a coated textile can withstand much higher loads because the woven polyester yarns distribute stress across the fabric. This construction helps the material resist stretching, tearing, handling damage, wind loads, and repeated mechanical use.

The PVC coating surrounds and protects the polyester base. It creates a continuous surface that helps reduce water penetration, improves cleanability, supports printability, and protects the textile from environmental exposure. PVC also provides a practical platform for incorporating functional additives, including flame-retardant, anti-ultraviolet, anti-mildew, anti-static, anti-bacterial, and low-temperature performance enhancements.

The nominal finished weight of 1300 GSM gives the fabric a substantial feel and a higher material density than many standard outdoor fabrics. A heavier construction can offer advantages in demanding applications, particularly where resistance to abrasion, puncture, wind movement, and repeated tensioning is important. At the same time, the fabric remains flexible enough to be cut, welded, tensioned, folded, transported, and fabricated into large-scale structures.

The material can be supplied with acrylic or PVDF surface treatment. These treatments can improve resistance to weathering, surface contamination, ultraviolet exposure, and long-term outdoor aging. The appropriate treatment depends on the intended application, desired appearance, cleaning requirements, and expected service environment.

1300GSM 1500D30X32 High Strength Membrane Structure PVC Coated Polyester Fabric

Key Technical Specifications

Technical data provides a useful basis for comparing membrane fabrics. The following values represent the stated average or nominal performance of the 1300 GSM 1500D 30×32 product. Actual results may vary according to production batch, color, coating formulation, test conditions, and customer-specific requirements.

Several features stand out from the specification. First, the tensile strength is balanced in both principal directions. Equal or near-equal strength in the machine and cross directions is valuable for architectural membranes because loads can be transferred through the fabric in multiple orientations. This is especially important for structures with curved geometry, pretensioned surfaces, changing wind directions, or complex edge details.

Second, the stated tearing strength of 1000 N/5 cm in both directions helps control the propagation of damage. In practical use, a small cut or puncture can become a much larger failure if the fabric has poor tear resistance. A high-tear-strength construction provides greater tolerance during installation, transportation, maintenance, and service.

Third, the peeling strength value of 100 N/5 cm indicates strong bonding between the PVC coating and the textile reinforcement under the stated test conditions. Coating adhesion is critical because separation between the polymer layer and the scrim can reduce waterproofing, weaken seams, expose yarns, and accelerate damage.

Why High Strength Matters in Membrane Structures

Membrane structures are often designed to cover large areas while using relatively few support columns, beams, or foundations. This creates architectural freedom, but it also places significant demands on the membrane material. The fabric may need to remain stable while exposed to wind pressure, suction, rainwater, temperature changes, sunlight, and repeated tension.

A high-strength membrane fabric helps designers achieve large spans without relying on excessively heavy structural supports. The fabric itself is not a replacement for engineering calculations or a complete structural system, but it serves as a critical load-bearing and environmental protection component within the engineered design.

For stadium canopies, exhibition roofs, transport terminals, and commercial awnings, membrane surfaces may experience dynamic wind movement and repeated stress cycles. A robust polyester scrim reduces the risk of excessive elongation and damage. The high-denier yarn also gives the fabric improved resistance to handling during fabrication and installation.

In temporary structures, strength is equally important. Exhibition tents, emergency shelters, temporary warehouses, and disaster-relief facilities may be installed quickly under challenging conditions. Materials can be dragged, folded, tensioned, or exposed to rough ground and equipment. A stronger fabric offers a larger safety margin during these operations than a light-duty cover.

Strength also contributes to long-term appearance. Excessive stretching can produce wrinkles, sagging, uneven tension, and water-collection points. By maintaining better dimensional stability, a high-strength fabric can support a cleaner architectural appearance throughout its service life, provided that the structure is correctly designed, installed, and maintained.

Advantages Over Conventional Outdoor Fabrics

Higher Reinforcement Level

Many general-purpose outdoor fabrics use lower-denier yarns or lighter base constructions to reduce cost and weight. These materials may be appropriate for short-term covers, small signs, or low-stress applications, but they may not offer the same resistance to concentrated loads, abrasion, and installation stress. The 1500D polyester reinforcement in this product is designed for more demanding applications.

Balanced Directional Performance

The 30×32 yarn density provides a relatively balanced construction. Some fabrics are substantially stronger in one direction than the other, which can limit design flexibility or require careful orientation during fabrication. A more balanced construction is beneficial when panels are cut into curved shapes, rotated during assembly, or subjected to multidirectional loads.

Superior Tear Resistance

A high tear-strength value helps prevent a small cut from spreading rapidly. This is particularly valuable for large sheets, because a minor installation incident can otherwise result in a costly replacement. Strong tear resistance does not eliminate the need for repairs, but it can slow damage progression and improve the fabric’s practical durability.

Substantial Weight and Coating Coverage

At approximately 1300 GSM, the product provides a robust material profile. The weight reflects the combination of dense polyester reinforcement and PVC coating. Compared with lightweight coated fabrics, this construction can offer improved resistance to abrasion, puncture, surface wear, and severe outdoor handling.

Wide Temperature Capability

The stated operating range of approximately -50°C to +70°C supports use in diverse climates. Cold-weather flexibility is important for outdoor structures exposed to winter conditions, while high-temperature capability supports use in sunny regions and under hot summer conditions. As with all polymer-coated fabrics, project engineers should consider the actual temperature cycle, tension level, color, ventilation, and exposure conditions before final selection.

Flame-Retardant Options

Depending on the required specification and market, the fabric can be produced with flame-retardant performance associated with classifications such as B1, B2, M1, M2, NFPA 701, and C 19. Flame-retardant requirements vary according to building codes, venue type, location, and local certification procedures. Buyers should confirm the exact classification, test report, and production batch documentation required for their project.

Surface Protection and Appearance

Acrylic and PVDF finishes provide options for improving outdoor durability and maintaining surface quality. A suitable finish can help reduce dirt adhesion, improve resistance to ultraviolet exposure, and simplify routine cleaning. The choice between surface treatments should be based on the expected service life, maintenance program, environmental conditions, and appearance requirements.

Performance Benefits of PVC Coating

PVC is widely used in technical textiles because it combines flexibility, processability, chemical resistance, weatherability, and cost efficiency. When applied to a strong polyester substrate, it creates a composite material with properties that neither the textile nor the polymer would provide independently.

The coating helps create a water-resistant or waterproof surface suitable for roofs, tarpaulins, protective covers, and temporary structures. It also protects the polyester yarns from direct exposure to moisture, dirt, ultraviolet radiation, and mechanical abrasion. This protective layer contributes to the overall service life of the composite fabric.

PVC can be formulated with additives that provide specific performance characteristics. Depending on the product version, additives may support resistance to ultraviolet radiation, mildew, frost, static electricity, bacteria, or flame. These properties allow the fabric to be adapted to different end uses rather than being limited to a single standard specification.

The material also offers good resistance to a range of chemicals. The supplied technical information identifies resistance to concentrated hydrochloric acid, 90% sulfuric acid, 60% nitric acid, and 20% sodium hydroxide. Chemical resistance is application-specific, and users should conduct compatibility testing whenever the fabric will be exposed to aggressive chemicals, elevated temperatures, prolonged immersion, or concentrated vapors.

PVC additionally provides electrical insulation characteristics. This may be useful in selected industrial or protective applications, although the fabric should not be treated as a certified electrical insulation product without application-specific testing and approval.

Membrane Structure Applications

Stadiums and Sports Facilities

Large sports facilities often use membrane materials for entrances, concourses, roof sections, walkways, shade areas, and spectator protection. The material must support a combination of architectural appearance, weather resistance, safety performance, and long-term durability. The high strength of this fabric makes it suitable for large, tensioned surfaces when incorporated into an engineered system.

Exhibition Halls and Event Venues

Exhibition and event spaces require flexible structures that can be assembled, modified, or expanded according to changing programs. The fabric can be used in large entrance canopies, temporary halls, partition systems, and event tents. Its printability also allows organizers to apply branding, directional information, sponsor graphics, and decorative designs.

Shopping Centers and Commercial Awnings

Retail developments commonly use fabric roofs and awnings to provide shade, weather protection, and visual identity. The material can be manufactured in different colors and can support large printed graphics. Its PVC surface can also be cleaned more easily than many untreated textile alternatives, helping preserve the appearance of busy commercial areas.

Transportation Facilities

Bus terminals, railway stations, parking entrances, pedestrian corridors, and airport support areas may benefit from durable membrane covers. These locations frequently experience high traffic, wind exposure, pollution, and repeated maintenance activities. A robust, coated fabric can provide overhead protection while allowing designers to create lightweight and visually distinctive structures.

Temporary Warehouses and Industrial Shelters

Temporary warehouses and industrial shelters require materials that can be rapidly deployed but still withstand demanding outdoor conditions. The product can be used for enclosure walls, roofs, side curtains, equipment covers, and separation systems. Its heavy-duty construction is suitable for facilities where ordinary lightweight tarpaulin may wear too quickly.

Disaster Relief and Emergency Facilities

Emergency shelters must be practical, portable, and resistant to unpredictable weather. Strong coated polyester fabric can be used in disaster-relief tents, medical support areas, storage shelters, and temporary command facilities. Depending on the configuration, the material can provide protection against rain, wind, sunlight, and abrasive handling.

Sunshade Systems and Carports

Carports, parking covers, outdoor walkways, swimming pool covers, and recreational shade structures often require durable, waterproof, and UV-resistant materials. The fabric’s strength helps it withstand tensioning systems and outdoor exposure, while the PVC surface supports routine cleaning and maintenance.

Advertising and Printed Structures

The material can be used for large advertising cloths, building wraps, backdrops, and structural graphics. A smooth PVC surface can support clear images, text, logos, and color fields when the correct printing process and ink system are selected. The final result depends on surface finish, printer compatibility, ink adhesion, color management, and installation method.

Marine and Specialized Covers

Other possible uses include sails, sports equipment covers, industrial isolation cloths, machinery protection, and specialized outdoor enclosures. Each application should be reviewed for mechanical loading, chemical exposure, folding frequency, seam design, and regulatory needs before production.

Manufacturing Strengths and Production Capabilities

The quality of a coated fabric depends not only on its listed specification but also on the consistency of its manufacturing process. Zhejiang MSD Group Share Co., Ltd. has operated since 2002 and has developed a product system covering decorative materials, sports materials, advertising materials, waterproof fabrics, and other flexible products. This broad experience supports the development of coated textiles for different markets and functional requirements.

The company’s location in the Warp Knitting Industrial Park of Haining provides access to a specialized textile manufacturing environment, technical labor, supply-chain resources, and related production expertise. A concentrated industrial ecosystem can support more efficient sourcing of yarns, base fabrics, coating materials, finishing chemicals, printing inputs, and fabrication services.

Independent innovation is identified as a central part of the company’s development strategy. For a technical fabric manufacturer, this may include research into coating formulations, surface treatments, flame-retardant systems, color stability, printability, welding behavior, environmental compliance, and application-specific performance. Product innovation is especially important because membrane structures often require a precise balance between strength, flexibility, weight, surface appearance, and durability.

The company’s diversified portfolio is another manufacturing advantage. Experience with PVC calendered film, PVC ceiling film, flex banner, mesh fabric, waterproof fabric, tarpaulin, drop stitch fabric, and sunshade fabric indicates familiarity with multiple flexible-material technologies. This cross-product knowledge can support improvements in raw-material selection, coating control, surface finishing, quality inspection, and product customization.

Base Fabric Preparation

The production process begins with the selection and preparation of the polyester reinforcement. Yarn denier, warp density, weft density, weave structure, and fabric uniformity all influence the final performance. For a 1500D 30×32 construction, accurate yarn control and consistent weaving are essential to achieve reliable tensile and tear properties.

PVC Formulation and Coating

PVC resin is combined with appropriate plasticizers, stabilizers, pigments, fillers, and functional additives to create a coating formulation. The formulation can be adjusted according to flexibility, flame retardancy, weather resistance, color, surface appearance, and intended service conditions. Controlled preparation helps ensure that the coating remains uniform and compatible with the polyester substrate.

Coating and Lamination Control

During coating, the PVC compound is applied to the textile under controlled temperature, pressure, speed, and coating-gap conditions. Uniform coating thickness is important because variations can affect weight, waterproofing, appearance, adhesion, and mechanical performance. The coating must penetrate and bond sufficiently to the textile while maintaining a continuous external surface.

Thermal Processing

Heating and cooling stages are used to fuse, stabilize, and finish the PVC layer. Correct temperature control supports proper polymer fusion and bonding. Excessive heat may affect the polyester or cause unwanted surface changes, while insufficient heat may reduce coating integrity. Production lines therefore require coordinated control of web speed, temperature, tension, and cooling.

Surface Treatment

Acrylic or PVDF treatment may be applied to provide additional protection. Surface finishing can improve resistance to ultraviolet radiation, dirt, weathering, and cleaning chemicals. It can also influence gloss, smoothness, color appearance, and suitability for printing or architectural use.

Inspection and Quality Assurance

Finished rolls should be checked for weight, thickness, width, color, coating uniformity, surface defects, adhesion, tensile strength, tear strength, and other agreed requirements. Laboratory testing according to recognized methods helps establish repeatability and gives buyers a basis for technical comparison.

Customization Possibilities

Membrane projects often have individual requirements, so a standard roll specification may need to be adapted. The product can be considered for customized color development, surface finish, flame-retardant performance, anti-UV treatment, anti-mildew treatment, anti-static properties, and other functional modifications.

Color selection affects more than appearance. Dark colors may absorb more solar radiation and increase surface temperature, while light colors may support a cooler interior environment and a brighter architectural effect. Translucent or semi-translucent constructions can be considered where daylight transmission is desirable, although the final optical performance must be confirmed through product testing.

For printed applications, buyers should specify the printing method, ink technology, expected outdoor exposure, color requirements, and cleaning conditions. Large-format printing can transform a structural membrane into a visual communication surface, but correct surface preparation and ink compatibility are necessary for durable results.

Fabrication requirements should also be discussed at the design stage. The material may be cut, heat welded, sewn, mechanically fixed, tensioned, or combined with webbing, ropes, eyelets, profiles, and edge reinforcements. Seam strength can be affected by welding temperature, pressure, speed, overlap width, and operator skill. Project fabricators should conduct trial seams before beginning full production.

Environmental and Compliance Considerations

Flexible PVC products are increasingly evaluated according to environmental, health, and regulatory requirements. The supplied information indicates that the material can be manufactured to meet RoHS, REACH, and EN71-3 requirements when specified. These standards address different concerns, so buyers should request current documentation relevant to the intended market and application.

RoHS requirements generally relate to restrictions on certain hazardous substances in electrical and electronic products and associated components. REACH addresses the registration, evaluation, authorization, and restriction of chemicals in the European market. EN71-3 concerns the migration of certain elements in products intended for children’s use. Not every membrane application requires all three standards, but they may be relevant for particular projects or supply chains.

Compliance should be confirmed through current declarations, laboratory reports, and batch-related documentation rather than assumed from a general product description. Customers should also identify whether the project requires low-emission performance, restricted plasticizers, special recycling provisions, or local green-building documentation.

Responsible material selection includes consideration of service life. A durable membrane that remains functional for many years may reduce replacement frequency, transport, labor, and waste compared with a short-lived alternative. At the end of its service life, recycling or responsible disposal should be evaluated according to local infrastructure and applicable regulations.

Installation and Fabrication Guidance

Successful performance depends on more than the fabric specification. The membrane must be correctly designed, fabricated, installed, tensioned, and maintained. Engineers should calculate wind, snow, rainwater, seismic, dead-load, and dynamic effects according to the relevant building codes and project conditions.

Rolls should be stored in a clean, dry, and ventilated area away from sharp objects, solvents, excessive heat, and direct sunlight. The material should remain protected from unnecessary compression or abrasion. During handling, lifting equipment and work surfaces should be arranged to prevent dragging across rough ground.

Cutting plans should account for the fabric’s principal directions, expected loads, seam allowances, edge reinforcements, and installation geometry. Accurate patterning helps reduce waste and ensures that the finished membrane receives loads in the intended orientation.

Welding or sewing conditions should be established through sample testing. A suitable seam should demonstrate adequate peel and tensile strength without excessive scorching, distortion, incomplete fusion, or coating damage. Fabricators should maintain consistent machine settings and document the parameters used for each project.

Edges and connection points deserve particular attention because they often receive concentrated loads. Reinforcing tapes, webbing, plates, ropes, profiles, and compatible hardware may be required. Fasteners should be selected to avoid cutting, tearing, corrosion, or excessive stress concentration in the coated fabric.

During installation, the material should be tensioned according to the structural design. Under-tensioning can cause wrinkles, flapping, ponding, and premature wear. Over-tensioning may create excessive stress at seams, corners, and attachment points. A qualified installation team should inspect the membrane after initial tensioning and again after the first period of service.

Maintenance and Service Life

Routine maintenance helps preserve both performance and appearance. Dirt, leaves, industrial deposits, bird contamination, and biological growth should be removed using methods compatible with the PVC surface and specified finish. Mild cleaning solutions and soft equipment are generally preferable to aggressive solvents, abrasive pads, or high-pressure methods that may damage the coating.

Inspections should focus on seams, edges, attachment points, high-stress corners, drainage areas, and locations exposed to repeated movement. Small cuts, punctures, or abrasion marks should be repaired promptly using compatible materials and approved techniques. Early repair is usually more economical than allowing damage to expand.

Snow, standing water, branches, tools, and other excessive loads should not be allowed to remain on the membrane. Drainage systems should be kept clear, especially on structures where the fabric geometry depends on continuous water runoff.

Service life varies according to climate, ultraviolet exposure, pollution, wind movement, tension, color, maintenance, fabrication quality, and structural design. A high-strength material improves the starting performance of the system, but no fabric can compensate for poor engineering, improper installation, or neglect.

Comparison with Alternative Materials

Compared with uncoated polyester, PVC-coated polyester provides a more continuous protective surface, improved water resistance, and greater resistance to environmental contamination. Uncoated textiles may offer breathability or a softer appearance, but they may not meet the waterproofing and heavy-duty requirements of large outdoor structures.

Compared with lightweight PVC tarpaulin, the 1500D 30×32 construction offers a stronger reinforcement system and higher mechanical performance. Lightweight tarpaulin remains useful for transport covers and short-term protection, but the heavier membrane fabric is more suitable where substantial tension, repeated handling, or long-term outdoor exposure is expected.

Compared with unreinforced PVC film, the polyester-supported construction provides much greater resistance to tensile and tear loads. Unreinforced film may be economical for certain lining or decorative applications, but it is not normally intended to carry the same structural stresses.

Compared with some premium architectural membrane materials, PVC-coated polyester can offer a practical balance between performance, fabrication convenience, availability, and project cost. Certain specialized membranes may provide different optical, acoustic, fluoropolymer, or long-term weathering properties. The correct choice should be based on the structural design, climate, regulatory requirements, expected life, and total project budget.

Quality, Reliability, and Supplier Support

For major membrane projects, buyers should evaluate the supplier as carefully as the product. Important factors include manufacturing history, technical expertise, product range, quality-control systems, testing capability, customization support, production capacity, packaging, delivery reliability, and after-sales communication.

Zhejiang MSD Group Share Co., Ltd. has developed a broad flexible-material product system since its establishment in 2002. Its experience across advertising, architectural, waterproof, sports, decorative, and industrial materials can be valuable for customers seeking more than a standard commodity fabric.

Technical communication should begin with a clear project brief. This should identify the application, dimensions, color, exposure conditions, flame-retardant classification, printing or fabrication method, expected service life, target market, compliance requirements, roll width, packaging, and delivery schedule.

Samples and trial production are recommended before large-volume purchasing. Testing a sample can confirm color, coating appearance, welding behavior, printing performance, seam strength, flexibility, and compatibility with existing fabrication equipment. For critical projects, independent laboratory verification may also be appropriate.

Application Selection Checklist

Before ordering the fabric, project teams should confirm whether the required tensile and tear values are suitable for the design loads. They should also verify whether the nominal weight and thickness are compatible with transportation, handling, welding equipment, support spacing, and installation procedures.

The required flame-retardant standard should be identified in advance. Terms such as B1, B2, M1, M2, NFPA 701, and C 19 are not automatically interchangeable. The project’s authority, insurer, architect, or building-code consultant should confirm the required test method and classification.

Environmental exposure should be reviewed carefully. Coastal locations, industrial areas, high-altitude regions, tropical climates, freezing conditions, and desert environments may require different additive packages or surface treatments.

Finally, the buyer should confirm documentation. This may include a technical data sheet, certificate of analysis, flame-retardant report, chemical compliance declaration, color standard, inspection record, packing list, and installation recommendations.

Frequently Asked Questions

What is the primary use of this fabric?

The primary use is the construction of high-strength membrane structures, including architectural roofs, stadium coverings, exhibition halls, commercial awnings, temporary buildings, and large outdoor shelters. It can also be used for tarpaulins, protective covers, advertising surfaces, carports, pool covers, and specialized industrial products.

What does 1500D mean?

1500D refers to the denier of the polyester yarn. Denier is a unit used to describe the linear density of fibers and yarns. A higher denier generally indicates a heavier and more robust yarn, although final fabric performance also depends on weave density, coating, construction, and finishing.

What does 30×32 represent?

The 30×32 specification refers to the approximate number of warp and weft threads per inch in the base fabric. It indicates the yarn density in the two principal directions and helps describe the structure of the polyester reinforcement.

Is the fabric waterproof?

The PVC coating is designed to provide a water-resistant or waterproof surface when the fabric and seams are properly manufactured. Finished performance depends on coating continuity, seam construction, welding quality, edge treatment, installation, and maintenance.

Can the fabric be printed?

Yes. The PVC surface can support large-format printing for advertising, logos, decorative graphics, and directional information. Printer compatibility, ink selection, surface finish, curing, and outdoor exposure should be evaluated through sample testing.

Can the fabric be welded?

PVC-coated polyester fabrics are commonly fabricated using compatible heat-welding processes. The exact welding temperature, pressure, speed, and overlap should be established through trials because they depend on equipment, ambient conditions, coating formulation, and fabric thickness.

What surface treatments are available?

The stated surface treatment options are acrylic and PVDF. These finishes can improve weather resistance, cleanability, surface durability, and long-term appearance. The recommended finish depends on the intended application and expected exposure.

What flame-retardant standards can be supported?

The product information identifies options associated with B1, B2, M1, M2, NFPA 701, and C 19. The exact classification must be confirmed for the specific production batch and target market because test methods and certification requirements differ.

Is the fabric suitable for cold climates?

The stated temperature range is approximately -50°C to +70°C. However, actual suitability depends on flexing, tension, exposure duration, color, additives, and installation conditions. Project-specific testing is recommended for extreme environments.

How should the fabric be cleaned?

Routine cleaning should generally use water, mild compatible cleaning agents, and soft tools. Abrasive equipment, harsh solvents, and excessive pressure should be avoided unless specifically approved for the product finish.

Can the product meet environmental compliance requirements?

The material can be manufactured to meet RoHS, REACH, and EN71-3 requirements when specified. Buyers should request current declarations and test documentation corresponding to the exact product, formulation, market, and application.

What information should be provided when requesting a quotation?

Customers should provide the required quantity, roll width, color, application, flame-retardant standard, surface treatment, printing or welding requirements, delivery destination, compliance documentation, and expected delivery schedule. Drawings or project specifications are also useful for recommending the most appropriate construction.

Conclusion

The 1300 GSM 1500D 30×32 High-Strength Membrane Structure PVC-Coated Polyester Fabric is engineered for applications where strength, durability, weather resistance, and fabrication flexibility are essential. Its dense 1500D polyester reinforcement, balanced 30×32 construction, 1300 GSM weight, 1.00 millimeter thickness, 6000 N/5 cm tensile strength, and 1000 N/5 cm tear strength create a substantial performance profile for demanding outdoor and architectural uses.

Its advantages over lighter or less reinforced alternatives include stronger load resistance, better tear control, improved handling durability, flexible surface-treatment options, broad temperature capability, and the potential for flame-retardant and regulatory-compliant versions. The PVC coating also provides waterproofing, chemical resistance, electrical insulation characteristics, printability, and opportunities for functional customization.

Manufacturing capability is an important part of the product value. Zhejiang MSD Group Share Co., Ltd. brings experience in flexible materials, product development, PVC-related technologies, waterproof fabrics, advertising materials, and technical textiles. Its established operation, industrial location, diversified product system, and emphasis on innovation support the production of coated fabrics for varied commercial and industrial requirements.

For the best results, the fabric should be selected as part of a complete engineered system. Proper design, testing, fabrication, installation, inspection, and maintenance are necessary to achieve dependable long-term performance. When these factors are addressed, this high-strength PVC-coated polyester fabric can provide a practical and durable solution for membrane structures, temporary facilities, protective covers, commercial architecture, and specialized outdoor applications.

References

1. GB/T 1040, Plastics—Determination of Tensile Properties.

2. GB/T 16578, Testing Methods for Tear Strength of Plastic Films and Coated Materials.

3. GB/T 3917, Textile Fabrics—Tear Properties—Determination of Tear Force.

4. FZ/T 01003, Test Methods for Textile Fabric Weight, Density, and Related Physical Properties.

5. NFPA 701, Standard Methods of Fire Tests for Flame Propagation of Textiles and Films.

6. REACH Regulation, European Union Requirements for the Registration, Evaluation, Authorization, and Restriction of Chemicals.

7. RoHS Requirements, Restrictions on Hazardous Substances in Electrical and Electronic Equipment.

8. EN 71-3, Safety of Toys—Migration of Certain Elements.

9. Technical Data Sheet for 1300 GSM 1500D 30×32 High-Strength Membrane Structure PVC-Coated Polyester Fabric.

10. General principles of architectural membrane design, coated textile fabrication, structural tensioning, and outdoor fabric maintenance.

Product: 1300GSM 1500D30X32 High Strength Membrane Structure PVC Coated Polyester Fabric

Zhang Lina | Regional Sales Manager (North America)

6 years of international sales experience, specializing in PVC outdoor/waterproof fabrics; built a client network across the US and Canada, organized 3 annual industry trade shows, and achieved 40% revenue growth in her region in 2023.