Wang Jiajia, Zhang Zheng, Zhou Kailong, Jiang Xinming, Huang Dongyan, Qian Zhihui, Ren Lei, Ren Luquan
College of Engineering and Technology, Jilin Agricultural University, Changchun, China.
Key Laboratory of Bionic Engineering, Ministry of Education, Jilin University, Changchun, China.
Front Vet Sci. 2025 May 9;12:1531363. doi: 10.3389/fvets.2025.1531363. eCollection 2025.
Birds have evolved morphologically diverse neck structures in order to adapt to different foraging styles. Studying avian neck structure and function can not only help us understand their evolutionary processes and ecological roles, but also use them as a research model for modular structure, providing a valuable reference for exploring the morphological and kinematic properties of other organisms.
By analyzing the neck bone structure of Chinese geese and domestic ducks, referring to the characteristic parameters of the neck bone structure, it provides reference for the structural design of bionic bird neck machinery.
This study focuses on two representative avian species of the order Anseriformes-geese and ducks-as research subjects to analyze their cervical vertebral structural morphology and investigate characteristic parameters of their cervical skeletal system. This manuscript mainly includes the following contents: structural morphological dimensions of goose and duck vertebrae were manually measured, and characteristic curves were plotted, analysis of their skeletal structural features. Images of the surface structural morphology of goose and duck vertebrae were taken, processed and measured with Image J software. Through comparative analysis of the morphological characteristics of vertebral surface structures in geese and ducks, their patterns were summarized.
The vertebral morphological characteristics of domestic geese and domestic ducks are very similar. With the increase of vertebral length (CL), the fluctuation range of vertebral width (ZW) gradually increases, and the fluctuation trend of vertebral width (ZW) of goose and duck neck is basically the same. The overall changes of the goose cervical CL values were smaller as compared to the duck cervical spine. Furthermore, although geese and ducks differ in cervical spine numbers, both showed functional zoning similar to other birds.
鸟类进化出形态多样的颈部结构以适应不同的觅食方式。研究鸟类颈部结构与功能不仅有助于我们理解其进化过程和生态作用,还能将其作为模块化结构的研究模型,为探索其他生物的形态和运动特性提供有价值的参考。
通过分析中国鹅和家鸭的颈部骨骼结构,参考颈部骨骼结构的特征参数,为仿生鸟类颈部机械的结构设计提供参考。
本研究聚焦于雁形目两种具有代表性的鸟类——鹅和鸭——作为研究对象,分析它们的颈椎结构形态并研究其颈椎骨骼系统的特征参数。本论文主要包括以下内容:手动测量鹅和鸭椎体的结构形态尺寸并绘制特征曲线,分析其骨骼结构特征。用Image J软件拍摄、处理并测量鹅和鸭椎体的表面结构形态图像。通过对鹅和鸭椎体表面结构形态特征的比较分析,总结其规律。
家鹅和家鸭椎体的形态特征非常相似。随着椎体长度(CL)的增加,椎体宽度(ZW)的波动范围逐渐增大,鹅和鸭颈部椎体宽度(ZW)的波动趋势基本相同。与鸭颈椎相比,鹅颈椎CL值的总体变化较小。此外,尽管鹅和鸭的颈椎数量不同,但二者均表现出与其他鸟类相似的功能分区。