Quantitative Characterization and Paradigm Shift in the Structural Evolution from Conventional to Irregular Sleeves under a Cross-Scale Coupling Perspective

The evolution of sleeve structure is a core interdisciplinary issue in apparel design. From the theoretical lens of “cross-scale coupling,” this study systematically explores the intrinsic mechanisms underlying the transition from conventional to irregular sleeves and the corresponding paradigm shifts in design. Through literature review, geometric-parameter measurement, multi-scale modeling, and case analysis, we uncover the coupled relationships among key parameters—sleeve length, sleeve-cap height, and sleeve width—across micro-level fiber architectures, meso-level pattern constructions, and macro-level wearing behaviors. Results indicate that every 1 cm increase in sleeve-cap height increases overall looseness by approximately 5%; changing the cuff shape from round to square enhances functionality by 10%; irregular sleeves improve mobility by 15 % over conventional sleeves, and 80 % of participants prefer their visual impact. Based on these findings, we construct a tripartite paradigm-shift framework of “structure–function–aesthetics” and propose a new design paradigm that evolves from single-scale optimization to multi-scale synergy. The findings provide systematic theoretical support for sleeve-structure innovation and methodological reference for cross-scale apparel-structure design.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-08-30
DOI
https://doi.org/10.5281/zenodo.17006204
Primary Topic
Geochemistry and Geologic Mapping
Type
article
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article

Quantitative Characterization and Paradigm Shift in the Structural Evolution from Conventional to Irregular Sleeves under a Cross-Scale Coupling Perspective

Zenodo (CERN European Organization for Nuclear Research)
Geochemistry and Geologic Mapping
article

Quantitative Characterization and Paradigm Shift in the Structural Evolution from Conventional to Irregular Sleeves under a Cross-Scale Coupling Perspective

article en

Abstract

The evolution of sleeve structure is a core interdisciplinary issue in apparel design. From the theoretical lens of “cross-scale coupling,” this study systematically explores the intrinsic mechanisms underlying the transition from conventional to irregular sleeves and the corresponding paradigm shifts in design. Through literature review, geometric-parameter measurement, multi-scale modeling, and case analysis, we uncover the coupled relationships among key parameters—sleeve length, sleeve-cap height, and sleeve width—across micro-level fiber architectures, meso-level pattern constructions, and macro-level wearing behaviors. Results indicate that every 1 cm increase in sleeve-cap height increases overall looseness by approximately 5%; changing the cuff shape from round to square enhances functionality by 10%; irregular sleeves improve mobility by 15 % over conventional sleeves, and 80 % of participants prefer their visual impact. Based on these findings, we construct a tripartite paradigm-shift framework of “structure–function–aesthetics” and propose a new design paradigm that evolves from single-scale optimization to multi-scale synergy. The findings provide systematic theoretical support for sleeve-structure innovation and methodological reference for cross-scale apparel-structure design.

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 58%
Geochemistry and Geologic Mapping
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