For example, TGA can help researchers understand the degradation process of natural rubber or synthetic polymers such as styrene butadiene rubber (SBR) at high temperatures, thereby adjusting the type and proportion of polymers in the formula and improving the heat and aging resistance of the product. In addition, TGA can also be used to evaluate the effects of fillers (such as carbon black and white carbon black) and other additives on the thermal stability of rubber composites, optimize the dosage and types of these components, and enhance the wear resistance and safety of tires.

The application of TGA is not limited to the initial selection of materials and optimization of formulations, but also includes monitoring the production process and quality control of finished products. By regularly conducting TGA testing, it is possible to ensure that all batches of materials meet the design specifications, promptly detect any deviations in production, and take corrective measures. In addition, with the increasingly strict environmental regulations, TGA is also used to study the thermal decomposition products of materials during waste or recycling processes, evaluate their environmental impact, and promote the sustainable development of the tire industry. Overall, TGA is one of the technologies developed in the tire industry. It not only improves the performance and safety of tires, but also helps companies meet increasingly strict environmental standards, promoting progress and innovation in materials science.