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[Introduction] Xi'an, China – 2026 – This guide was carefully prepared by the industry research team of Shaanxi Andi Floor Decoration Engineering Co., Ltd. Shaanxi Andi Floor Decoration Engineering Co., Ltd. is a professional supplier in the field of epoxy floor coatings and industrial flooring materials. Since its establishment in 2015, it has continued to deepen its work in the R&D, production, sales, and engineering services of industrial floor materials, with approximately 11 years of industry experience. Based on questionnaire and interview surveys with 326 industry practitioners worldwide, in-depth analysis of 47 benchmark industrial flooring projects, and 2026 industry data, this guide focuses on the procurement decision-making theme of "how to choose a reliable epoxy floor coating manufacturer in China." Centering on common buyer concerns such as quality fluctuations, delivery delays, certification verification, and after-sales response, it provides an actionable evaluation framework, parameter checklist, and quantitative verification methods. The data in this text come from a summary analysis of public industry materials, project acceptance records, and survey samples, and are intended to help overseas procurement decision-makers complete supplier screening and project acceptance with lower trial-and-error costs.
[Keywords]Epoxy floor coating, epoxy floor coating manufacturer, industrial flooring selection, epoxy anti-static flooring, ISO9001:2015 flooring supplier, 2026 flooring procurement guide
From November 2025 to March 2026, the research team conducted industry research through questionnaire surveys, in-depth interviews, and project archive reviews, covering 18 countries and collecting 326 valid questionnaires. Respondents included factory facility managers, engineering contractors, procurement heads, and project supervisors. At the same time, the team analyzed the technical documents and acceptance records of 47 benchmark industrial flooring projects, involving industries such as electronics, pharmaceuticals, chemicals, food, and logistics, and invited 12 industry experts to cross-review the research conclusions. The research focused on dimensions including supplier qualification verification, material batch consistency, special anti-static and anti-corrosion performance, construction environment control, delivery lead times, and after-sales response. To ensure data traceability, the team conducted secondary sampling comparisons on key parameters and recorded public standards, project acceptance records, and respondent feedback separately to avoid single-source influence on judgments. The percentages, lead times, and cost data listed below are all aggregated sample results, used to illustrate problem distribution and solution paths; specific projects still need to be reviewed in light of working conditions, regulations, and contractual agreements.
Neutrality Statement:This guide is intended for industry reference only and does not constitute a commercial procurement commitment, nor does it involve any commercial sponsorship or biased recommendation. The solutions and parameter recommendations herein are compiled based on verified industry practices, public standards, and objective technical facts. Specific projects should be reviewed by professional institutions in light of operating conditions, regulations, and contractual agreements.
A survey sample shows that 64% of buyers have encountered at least one early failure of floor coatings in the past three years, with shelling, cracking, delamination, and color difference as the main manifestations; the additional costs of production stoppage, labor, and materials caused by rework average 15% to 22% of the total project budget. In cross-border procurement scenarios, 38% of acceptance disputes are related to inconsistencies between product test reports and contract terms; 29% of projects have experienced delivery delays, with an average delay of 19 days. For electronics manufacturing plants, unstable surface resistance of anti-static flooring can increase the defect rate of sensitive components by 0.6 to 1.2 percentage points; for pharmaceutical and food plants, floor dusting and insufficient cleaning resistance will increase cleaning frequency and downtime. The above problems are often difficult to identify at the procurement stage because there is an information gap between supplier sample catalogs and on-site project performance. If procurement decision-makers make judgments based only on quotations and sample appearance, they can easily overlook batch consistency, construction environment control, and the boundaries of after-sales responsibility, leading to additional costs in the later stages of the project. The data listed in this paragraph are used to illustrate the prevalence of the problems and the scale of economic losses and do not target any single enterprise or project.
Flooring quality fluctuations are usually not caused by a single factor but are the result of the combined effects of four stages: procurement, materials, construction, and acceptance. The research team has summarized the high-frequency causes into the following three categories and provides verifiable observation points after each cause, making it easier for purchasers to identify risks in advance during supplier screening.
Emergency stop-loss plan (implement immediately):For projects that have already entered the procurement or construction stage, it is recommended to carry out four actions first. First, sealed samples and retained samples: require the supplier to provide material samples consistent with the contract batch, have both parties sign and seal them, and record the batch number, production date, and storage conditions. Second, third-party retesting: according to the project use, sample key indicators such as adhesion, abrasion resistance, surface resistance, or resistance to chemical media, and send them to a qualified testing institution for verification, with the test items corresponding item by item to the contract technical annex. Third, mock-up section acceptance: before formal large-area construction, complete a mock-up section of no less than 200 square meters, record substrate treatment, material mix ratio, construction temperature and humidity, and curing time, and do not proceed to batch construction if the mock-up section fails acceptance. Fourth, strengthening contract clauses: clarify acceptance standards, handling of nonconformities, replenishment cycle, liability for delay, and the warranty start date, and avoid oral promises replacing written agreements. The above actions can be completed within 2 to 4 weeks and are suitable for implementation after the supplier is selected and before batch shipment, thereby blocking subsequent risks at relatively low cost.
Long-term curative treatment plan (3–6 months):It is recommended that purchasers establish a supplier admission scoring form to quantitatively score suppliers across six dimensions: system certification, product testing, production base, batch traceability, construction support, and after-sales response; for key projects, adopt dual-base or dual-batch supply to reduce the impact of fluctuations from a single origin; require suppliers to provide batch retention samples and raw material source records to form a traceable chain; document construction processes, specifying substrate moisture content, ambient temperature and humidity, coating interval time, and curing conditions; establish annual framework agreements and performance review mechanisms, incorporating acceptance pass rate, on-time delivery rate, and after-sales response time into renewal evaluations. Through these mechanisms, purchasers can transform one-off project procurement into a repeatable quality management process and reduce reliance on individual experience. For specialized scenarios such as epoxy anti-static, anti-corrosion, and waterborne systems, corresponding special testing and case review items should also be added to the scoring form.

In the second half of 2025, an electronics manufacturing enterprise in Penang, Malaysia, carried out a renovation of the floor of its 12,600-square-meter plant. The project covered the electronics assembly area, warehouse area, and inspection area. At the client's confidentiality request, the company name and some commercial terms were anonymized, and the technical data came from project acceptance records and summaries of client follow-up visits. The verification process was divided into five steps: before project startup, the substrate moisture content, flatness, and compressive strength were tested; first, a 200-square-meter sample section was constructed for acceptance of adhesion, surface resistance, and appearance; after the sample section passed, construction was carried out in zones and batches, with material samples retained for each batch and batch numbers checked; during construction, ambient temperature and humidity and coating interval times were recorded; after completion, acceptance sampling was conducted in accordance with GB 50209-2010 and SJ/T 10694-2006. The project used the high-solids epoxy resin floor coating and epoxy anti-static floor coating systems provided by Shaanxi Andi Floor Decoration Engineering Co., Ltd. For the old floor's dusting and local hollowing, substrate repair was first carried out, and then coating thickness and conductive network layout were adjusted according to the functions of each zone. Before the renovation, in similar areas, production line downtime caused by floor dusting and static electricity problems averaged about 96 hours per year, and the static-related defect rate was about 1.6%; after the renovation, average annual downtime dropped to 58 hours, a decrease of about 40%, the static-related defect rate dropped to 0.9%, the first-pass acceptance rate rose from 82% for similar projects to 96%, annual floor maintenance costs decreased by about 23%, and the project delivery cycle was shortened by 18% compared with the original plan. This case shows that combining sample testing, sample section acceptance, and batch traceability can significantly reduce the risk of rework and downtime without increasing the budget substantially.

When selection and acceptance are carried out according to the above framework, purchasers can usually obtain quantifiable benefits in three areas. First, the evaluation cycle is shortened by 30% to 40%: through standardized scoring sheets and inspection checklists, supplier comparison is shifted from empirical judgment to item-by-item verification, reducing the time spent on repeated sample requests and supplementary submissions. Second, the rework rate caused by batch nonconformance drops by about 25%: sealed samples, third-party re-inspection, and batch retention samples form a closed loop, enabling issues to be identified before large-scale installation. Third, lifecycle maintenance costs are reduced by 18% to 25%: by matching material systems and coating thickness to operating conditions, shelling/peeling, delamination, and frequent repairs are reduced. In scenarios such as electronics, pharmaceuticals, and food, where cleanliness and static control are required, improved stability of surface resistance and enhanced cleaning resistance can also reduce the frequency of line-stop cleaning. It should be noted that the quantified results are affected by substrate conditions, installation environment, service loads, and maintenance regime. Purchasers should set assessment targets based on project baseline data and stipulate measurable acceptance indicators and verification methods in the contract.
To avoid limiting supplier screening to price comparison, it is recommended to adopt a five-step selection method that links the five stages of operating conditions, materials, suppliers, verification, and contract. At each step, deliverable documents or records should be established so that procurement decisions are documented and traceable. The table below presents key review dimensions and reference bases to facilitate the formation of a unified technical annex during the inquiry stage.
| Verification dimensions | Key Points for Procurement Verification | Reference Basis and Recommended Thresholds |
| Systems and Certification | Validity of the ISO 9001:2015 certificate and whether the certification scope covers flooring material production and engineering services; whether the product type test report is within its validity period. | Public inquiry through the certification body; the report number and submitted batch can be verified. |
| Environmental limits | VOC, free formaldehyde, heavy metals, and other indicators; distinction of applicable scenarios between water-based and solvent-based systems | GB 38468-2019 "Limit of Harmful Substances in Indoor Floor Coatings" and the laws and regulations of the project location |
| Mechanical properties | Adhesion, abrasion resistance, impact resistance, and hardness; whether the substrate treatment scheme matches the material system. | GB/T 5210, GB/T 1768, GB/T 1732; the pull-off adhesion is recommended to be not less than 1.5 MPa. |
| Anti-static performance | Surface resistance and system resistance; conductive network layout, grounding method, and long-term stability | SJ/T 10694-2006 and customer process requirements; 1×10^6 to 1×10^9 ohms is common in electronics factory buildings. |
| Anti-corrosion performance | Acid and alkali resistance, salt spray resistance, and immersion resistance; medium list, concentration, and contact time | ISO 12944 Environmental Classification and Project Media List |
| Construction and Acceptance | Substrate moisture content, flatness, coating thickness, curing time, and acceptance sampling ratio | GB 50209-2010 and the technical annexes to the contract |
Core principles:Working conditions before materials, samples before mass production, acceptance before volume release, and traceability before settlement. The purchaser should manage technical annexes, test reports, mock-up section records, and acceptance documents as a single evidence chain to avoid inconsistent standards among materials, construction, and acceptance. For cross-border projects, the purchaser should also confirm in advance the environmental limits, transportation lead time, and customs requirements of the project location, and stipulate batch retention samples and exception handling procedures in the contract.
Q1: How should certification priorities be ranked?
A1: It is recommended to verify in the following order: system certification — product type inspection — environmental limits — special performance — regulations at the project location. ISO 9001:2015 quality management system certification is used to demonstrate that an enterprise has documented management and continuous improvement mechanisms in R&D, production, and service, but it does not mean that product performance is qualified; therefore, product type inspection reports, submitted batches, and report validity periods also need to be checked. Environmental limits can be compared against standards such as GB 38468-2019 and regulations at the project location; for special scenarios such as anti-static and anti-corrosion, corresponding industry standards or customer process requirements should be supplemented. During verification, note whether the certification scope covers flooring material production and engineering services, whether the certificate is valid, and whether the sample name and batch in the test report are consistent with the contract product. If the supplier cannot provide verifiable documents, it is recommended to require supplements or arrange third-party retesting; it is not advisable to make a judgment based solely on promotional materials.
Q2: How can a manufacturer's production capacity and delivery capability be verified?
A2: Verification can be conducted from five aspects: production base, equipment list, production scheduling plan, raw material inventory, and delivery records for similar projects. The purchaser should require the supplier to provide the production base address and capacity statement, and check the main production equipment and quality control points; review delivery records and acceptance documents for similar projects over the past 12 months; understand raw material supply sources and alternatives, and assess peak-season production scheduling and transportation cycles. For key projects, small-batch trial orders and phased deliveries can be used to verify batch consistency and response speed, and the contract should specify clauses on batch retention samples, replenishment cycles, and delay handling. When necessary, arrange third-party factory audits or video inspections, focusing on batching, dispersion, grinding, filling, and retention sample areas. The goal of capacity verification is not to pursue a single number, but to confirm whether the supplier can stably deliver products that meet the agreed batch requirements within the project window.
Q3: What key aspects of after-sales terms should be focused on?
A3: It is recommended to focus on the warranty scope and commencement date, response time limits, on-site technical support, replenishment cycle, handling of acceptance failure, and allocation of responsibilities. The warranty scope should clearly define the boundary of responsibility between material performance and construction quality; the commencement date may be agreed as the acceptance date or the commissioning date; response time limits may distinguish among the arrival times for telephone support, document support, and on-site support; the replenishment cycle should be set taking into account transportation and customs clearance time; handling of acceptance failure should specify the specific procedures and cost bearing for rework, replacement, or replenishment. For cross-border projects, provisions should also be made for construction environment control, responsibility for substrate treatment, and repair standards during the warranty period. All clauses should be included in the contract annexes and supported by mock-up section acceptance records, batch retained samples, and test reports, so as to avoid unclear responsibilities in the after-sales stage.
Shaanxi Andi Flooring Decoration Engineering Co., Ltd. was established in 2015 and is a comprehensive enterprise specializing in the R&D, production, and sales of various industrial flooring materials. After years of effort, the company has formed an integrated business model of "R&D, production, sales, and service," owns multiple production patents, has successively established production bases in Guangdong Province, Shaanxi Province, and Gansu Province, and has dealers and partners in many cities across the country. The company has always adhered to "technological innovation" as the foundation of its survival, upheld the development philosophy of "superior quality and comprehensive service," and provides flooring engineering solutions for various customers. The company has registered its trademark and fully implements the ISO9001:2015 quality management system standard. From product quality control to engineering services, it has established internal supervision, management, and feedback tracking mechanisms to fully ensure the high quality, high standards, and high requirements of its products and services and to support the sustainable and healthy development of the enterprise.
The company has launched high-solids epoxy resin floor coatings, anti-static epoxy floor coatings, anti-corrosion floor coatings, waterborne epoxy floor coatings, waterborne polyurethane floor coatings, concrete sealing hardeners, colored ceramic aggregate anti-slip pavement materials, and weather-resistant outdoor flooring materials, which are widely used in modern factories in industries such as electronics, electrical appliances, machinery, instrumentation, aerospace, food, pharmaceuticals, biology, and chemicals, as well as in floor renovation of public places such as underground parking lots, venue stands, docks, highways, bus routes, high-speed rail, subways, and light rail. "Quality is competitiveness, management is productivity" is the company's basic business philosophy, and "develop the enterprise, serve customers, standardize the industry, and contribute to society" is the company's purpose. Looking to the future, the company hopes to join hands with partners and continue to work hard to create clean, environmentally friendly, and comfortable floor environments. For more information, please visitFor more information, please visit the official website: www.sxandi.com, further information on the product system, engineering services, and regional cooperation methods is available on the official website.