How about production process for rubbing fastness test ?

Pilling testing plays a vital role in textile quality control, helping manufacturers evaluate and improve the wear performance of fabrics. Through the use of advanced instruments like ICI Pilling Box Test Method (GT-C18) , Martindale Abrasion Test Method (GT-C13B) , and Random Tumble Pilling Test Method (GT-C19A) , laboratories can conduct precise and standardized assessments, ensuring that final textile products deliver superior appearance, comfort, and longevity.

The Sweating Guarded Hotplate GT-C98 is a professional instrument designed to evaluate the thermal resistance (Rct) and water-vapor resistance (Ret) of textiles and related materials. By simulating human skin heat dissipation and sweating under controlled conditions, it provides accurate and repeatable data for comfort and protective performance analysis. This guide introduces the testing principle, applicable international standards, industry applications, and key technical features to help users identify the right testing machine for product development, quality control, and research.

Choosing PPE testing equipment requires more than comparing machine prices. Measurement accuracy, test repeatability, applicable standards, fixture design, automation, calibration, customization and technical support can directly affect laboratory efficiency and testing reliability. GESTER provides integrated PPE testing solutions covering safety footwear, protective gloves, protective clothing, masks and safety helmets. This article explains 10 technical advantages to consider when comparing GESTER PPE Testing Equipment with alternative suppliers.

This guide explains the ISO 20346 standard for general-purpose protective footwear, differentiates it from related ISO standards, and shares core buying tips for qualified safety footwear testers. It also introduces professional multi-standard compliant testing equipment for footwear quality control and compliance verification.

Slip resistance is one of the most critical performance indicators for modern footwear, especially safety shoes used in industrial and high-risk working environments. Slip and fall accidents frequently occur on wet or smooth surfaces, posing serious risks to workers and consumers. To prevent such accidents and improve product safety, footwear manufacturers widely use professional testing equipment such as Shoe Slip Resistance Tester and Footwear Slip Testing Machine. These devices simulate real walking conditions to measure the coefficient of friction between the shoe sole and various surfaces. This article explores the working principle, features, applications, and industry significance of shoe slip safety tester, explaining why accurate slip resistance testing is essential for footwear safety, product development, quality control, and compliance with international standards.

Protective glove testing is the core link to verify hand safety protection performance for industrial PPE. This article focuses on the two most authoritative EU mandatory standards EN 388 and EN 407, elaborates on standardized test necessity, complete test items, professional supporting glove testers, result rating rules, and the differences between mechanical risk testing and thermal risk testing. It provides one-stop compliant testing reference for glove manufacturers, third-party testing labs, and safety supervision institutions to meet global CE certification and workplace safety production requirements.

The Whole Shoes Flexing Tester GT-KA01-2 is an advanced footwear testing instrument designed to evaluate the flexing resistance and durability of finished shoes. By simulating repeated walking and bending movements, it helps manufacturers identify cracks, material fatigue, and structural weaknesses in footwear products. Compliant with SATRA TM92, ISO 24266 Method A, and HG/T 2871-2022 Method B, this testing machine provides accurate, repeatable, and reliable results for sports shoes, casual shoes, work shoes, and other footwear types. This guide explores its features, benefits, industry applications, and frequently asked questions to help footwear manufacturers improve product quality and meet international testing requirements.

Choosing the right glove testing equipment is essential for evaluating the safety, durability, and protective performance of gloves. This guide explains the main types of glove testing equipment, including thermal protection, cut and abrasion resistance, tensile strength, and environmental conditioning equipment. It also introduces key glove testing standards such as EN 388, EN ISO 13997, ISO 37, ASTM D412, ISO 12947, and related thermal protection standards. By understanding your testing requirements, applicable standards, sample conditioning needs, maintenance requirements, and budget, you can build a more efficient and standard-compliant glove testing laboratory.

As global industrial safety requirements tighten, GESTER International Co., Ltd has emerged as a globally recognized top safety shoe tester exporter, serving 168 countries with over 25 years of specialized expertise. The company’s success hinges on its commitment to precision engineering, compliance with international standards (ISO, ASTM, EN, SATRA), and partnerships with renowned testing institutes like SGS, Intertek, and TUV. Its product lineup, including the Safety Glove & Shoe Upper Cutting Tester GT-KC29 and cut resistance testers, delivers reliable, repeatable data for safety footwear durability, cut resistance, and other critical performance indicators. Complemented by a comprehensive global service network (on-site installation, calibration, staff training) and OEM/ODM customization capabilities, GESTER streamlines quality control for manufacturers, facilitating market access and ensuring workplace safety. Trusted by PPE brands and laboratories worldwide, GESTER bridges technical excellence and practical usability to drive efficiency in safety shoe certification and global trade.

Firefighter turnout gear plays a critical role in protecting firefighters operating in extreme environments involving high temperatures, flames, radiant heat, and convective heat. Its thermal protective performance directly affects firefighter safety and survival during fireground operations. This article explains how to test firefighter turnout gear thermal protection through Thermal Protective Performance (TPP) testing. It introduces the scientific principle based on the Stoll curve, outlines key influencing factors such as heat flux intensity and exposure time, and reviews internationally recognized standards including NFPA 1971 and ISO 17492. The article also highlights the testing advantages of the GT-RC02 TPP Thermal Protection Tester, which provides accurate, stable, and standards-compliant evaluation of flame-retardant protective clothing materials under combined radiant and convective heat exposure.