Affiliation:
1. Univ. Grenoble Alpes CEA LITEN DTCH Laboratoire Composants et Systèmes Thermiques (LCST) F-38000 Grenoble France
2. Univ. Grenoble Alpes CEA LETI DTIS Plateforme de Recherche Intégration, fonctionnalisation de Surfaces et Microfabrication (PRISM) F-38000 Grenoble France
Abstract
AbstractSustainable biocatalysis syntheses have gained considerable popularity over the years. However, further optimizations – notably to reduce costs – are required if the methods are to be successfully deployed in a range of areas. As part of this drive, various enzyme immobilization strategies have been studied, alongside process intensification from batch to continuous production. The flow bioreactor portfolio mainly ranges between packed bed reactors and wall‐immobilized enzyme miniaturized reactors. Because of their simplicity, packed bed reactors are the most frequently encountered at lab‐scale. However, at industrial scale, the growing pressure drop induced by the increase in equipment size hampers their implementation for some applications. Wall‐immobilized miniaturized reactors require less pumping power, but a new problem arises due to their reduced enzyme‐loading capacity. This review starts with a presentation of the current technology portfolio and a reminder of the metrics to be applied with flow bioreactors. Then, a benchmarking of the most recent relevant works is presented. The scale‐up perspectives of the various options are presented in detail, highlighting key features of industrial requirements. One of the main objectives of this review is to clarify the strategies on which future study should center to maximize the performance of wall‐immobilized enzyme reactors.
Funder
Agence Nationale de la Recherche