Abstract: Fibrous tubular materials refer to tubular materials produced through textile methods, which possess many advantages such as good fatigue resistance, high strength, and high modulus. They can be widely used in pipelines, pipe shells, bushings, ultra-high temperature insulation pipes, and structural support fields. Fibrous tubular materials generally include woven tubes, knitted tubes, non-woven tubes, and braided tubes. Among them, woven tubes are mainly evolved from double-layer woven fabrics, with low porosity, low elasticity and high mechanical strength; knitted tubes can be prepared by the two methods of weft knitting and warp knitting, with uniform pore structure, high porosity and high elasticity; non-woven tubes focus on the preparation of multi-layer tubes, with a unique fiber arrangement structure, but their pores are uneven, stability is poor and strength is low; the braided tubes can be shaped flexibly, with uniform pore structure, adjustable pores, and high axial strength.
Braiding, as an automated manufacturing technology with faster speed and higher efficiency, has been widely applied in various fields. The manufacturing process of braided tubes is relatively simple, and the structure and performance of braided tubes can be changed by changing parameters to meet the needs of different complex product designs. In recent years, research on braided tubes has become increasingly in-depth.
For braided tubes, the structure and performance can be changed by changing the braiding material and braiding parameters. Currently, high-performance materials such as medical materials, conductive materials, and high-temperature oxidation resistant materials have been used to prepare braided tubes suitable for different fields, demonstrating the unique advantages and application potential of braided tubes.
In terms of braiding parameters, there has been a series of progress in the study of braiding angles and mechanical properties of braiding tubes from theory to application. However, there is a lack of systematic research on the relationship between parameters such as number of braiding layers, number of braiding yarns, and core shaft specifications and the pore structure and performance of braiding tubes. In addition, scholars have studied the impact of new structures such as different pore structures, structures with different braiding angles, mixed yarn structures, and elastic structures on the performance of braided tubes. 
Therefore, it is necessary to systematically summarize the relationship between braiding parameters and the structural performance of braided tubes. Explaining the relationship between braiding parameters and the structural performance of braided tubes has practical guiding significance for the subsequent structural design, and can scientifically guide researchers in preparing ideal braided tubes.

Key words:  , textile technology, braiding process, braided structure, braided tube performance

摘要： 与传统制作管状材料的缠绕成型、拉挤成型等方法相比，编织可以根据物体的形状和尺寸，直接形成各种形状的编织物，已广泛应用于医疗、航空航天、复合材料和组织工程等领域。文章围绕近年来国内外编织领域的研究成果，从编织技术的分类出发，综述了不同编织技术的编织设备及原理，分析了编织参数、编织结构、编织材料对编织管性能的影响，最后总结了编织管近年来的技术发展及挑战。综述结果可为促进编织管在智能可穿戴电子、消费电子设备等新领域中的应用提供参考。

关键词: 纺织技术, 编织工艺, 编织结构, 编织管性能