Institute for the Technological Development of the Chemical Industry (INTEC), National Research Council (CONICET) and University of Litoral (UNL), Santa Fe, Argentina.
Photochem Photobiol. 2012 Jul-Aug;88(4):952-60. doi: 10.1111/j.1751-1097.2012.01149.x. Epub 2012 Apr 26.
In a previous study, we developed a methodology to assess the intrinsic optical properties governing the radiation field in algae suspensions. With these properties at our disposal, a Monte Carlo simulation program is developed and used in this study as a predictive autonomous program applied to the simulation of experiments that reproduce the common illumination conditions that are found in processes of large scale production of microalgae, especially when using open ponds such as raceway ponds. The simulation module is validated by comparing the results of experimental measurements made on artificially illuminated algal suspension with those predicted by the Monte Carlo program. This experiment deals with a situation that resembles that of an open pond or that of a raceway pond, except for the fact that for convenience, the experimental arrangement appears as if those reactors were turned upside down. It serves the purpose of assessing to what extent the scattering phenomena are important for the prediction of the spatial distribution of the radiant energy density. The simulation module developed can be applied to compute the local energy density inside photobioreactors with the goal to optimize its design and their operating conditions.
在之前的研究中,我们开发了一种评估藻类悬浮液辐射场内在光学特性的方法。有了这些特性,我们开发了一个蒙特卡罗模拟程序,并在本研究中作为一个预测自主程序应用于模拟实验,这些实验重现了大规模生产微藻过程中常见的照明条件,特别是在使用开放式池塘(如跑道池塘)时。通过将人工照明藻类悬浮液的实验测量结果与蒙特卡罗程序预测的结果进行比较,验证了模拟模块。该实验处理的情况类似于开放式池塘或跑道池塘的情况,只是为了方便起见,实验装置看起来像是那些反应器被颠倒了。它的目的是评估散射现象对预测辐射能密度空间分布的重要程度。开发的模拟模块可用于计算光生物反应器内部的局部能量密度,以优化其设计和操作条件。