Vergara-Fernández Alberto, Hernández Sergio, Revah Sergio
Departamento de Ingeniería de Procesos e Hidráulica, Universidad Autónoma Metropolitana-Iztapalapa, México DF, Mexico.
Biotechnol Bioeng. 2008 Dec 15;101(6):1182-92. doi: 10.1002/bit.21989.
This work describes the growth of filamentous fungi in biofilters for the degradation of hydrophobic VOCs. The study system was n-hexane and Fusarium solani B1. The system is mathematically described and the main physical, kinetic data and morphological parameters were obtained by independent experiments and validated with data from laboratory experiments. The model describes the increase in the transport area by the growth of the filamentous cylindrical mycelia and its relation with n-hexane elimination in quasi-stationary state in a biofilter. The model describing fungal growth includes Monod-Haldane kinetic and hyphal elongation and ramification. A specific surface area of transport (SSAT) of 1.91 x 10(5) m(2) m(-3) and a maximum elimination capacity (EC) of 248 g m(-3) h(-1) were obtained by the mathematical model simulation, with a 10% of error with respect to the experimental EC.
这项工作描述了丝状真菌在生物滤池中生长以降解疏水性挥发性有机化合物的情况。研究系统为正己烷和茄病镰刀菌B1。对该系统进行了数学描述,并通过独立实验获得了主要的物理、动力学数据和形态学参数,并用实验室实验数据进行了验证。该模型描述了丝状圆柱形菌丝体生长导致的传质面积增加及其与生物滤池中准稳态下正己烷去除的关系。描述真菌生长的模型包括莫诺德-霍尔丹动力学以及菌丝伸长和分支。通过数学模型模拟得到了1.91×10⁵ m² m⁻³的传质比表面积(SSAT)和248 g m⁻³ h⁻¹的最大去除能力(EC),相对于实验EC的误差为10%。