Kniesburges Stefan, Thomson Scott L, Barney Anna, Triep Michael, Sidlof Petr, Horáčcek Jaromír, Brücker Christoph, Becker Stefan
Institute of Process Maschinery and Systems Engineering, University Erlangen-Nuremberg, Cauerstr. 4, 91058 Erlangen, Germany, .
Curr Bioinform. 2011 Sep 1;6(3):305-322. doi: 10.2174/157489311796904637.
The process of human phonation involves a complex interaction between the physical domains of structural dynamics, fluid flow, and acoustic sound production and radiation. Given the high degree of nonlinearity of these processes, even small anatomical or physiological disturbances can significantly affect the voice signal. In the worst cases, patients can lose their voice and hence the normal mode of speech communication. To improve medical therapies and surgical techniques it is very important to understand better the physics of the human phonation process. Due to the limited experimental access to the human larynx, alternative strategies, including artificial vocal folds, have been developed. The following review gives an overview of experimental investigations of artificial vocal folds within the last 30 years. The models are sorted into three groups: static models, externally driven models, and self-oscillating models. The focus is on the different models of the human vocal folds and on the ways in which they have been applied.
人类发声过程涉及结构动力学、流体流动以及声学声音产生与辐射等物理领域之间的复杂相互作用。鉴于这些过程具有高度非线性,即使是微小的解剖学或生理学扰动也会显著影响语音信号。在最糟糕的情况下,患者可能会失声,从而失去正常的言语交流方式。为了改进医学治疗方法和外科技术,更好地理解人类发声过程的物理原理非常重要。由于对人类喉部进行实验的机会有限,已经开发了包括人工声带在内的替代策略。以下综述概述了过去30年中对人工声带的实验研究。这些模型分为三组:静态模型、外部驱动模型和自激振荡模型。重点在于人类声带的不同模型以及它们的应用方式。