Abstract
Based on the group standard T/ZZB 3029—2022 for motorcycle shock absorbers, this study develops an integrated analytical framework for suspension system design, verification, and customized research and development (R&D) for motorcycles, mopeds, and electric two-wheelers. Moving beyond a purely technical perspective, the paper adopts a socio-technical approach to examine how standardized engineering specifications interact with manufacturer-oriented customization demands in contemporary vehicle industries. The study systematically constructs a full-process technical system encompassing high-precision spring design, multi-dimensional damper tuning, structural strength verification, whole-vehicle matching, and lifecycle quality control. Through standardized procedures such as ex-factory inspection, type testing, environmental adaptability evaluation, and durability verification, the research demonstrates how the integration of “standard compliance” and “scenario-based customization” enables effective coordination between safety, handling performance, riding comfort, and long-term durability. Furthermore, the findings reveal that the implementation of T/ZZB 3029—2022 not only improves the consistency and reliability of suspension systems but also establishes a data-driven and process-oriented quality governance mechanism. This mechanism enhances industrial coordination, reduces performance variability, and supports differentiated product development across various vehicle categories. By linking engineering design practices with institutional standardization frameworks, this study contributes to interdisciplinary discussions on the role of technical standards in shaping industrial performance and technological innovation. It provides a replicable and scalable technical paradigm for the development of high-quality suspension systems in the motorcycle and electric two-wheeler industry.
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