Title

「Understanding and Harnessing the Power of Microbial Communities: System and Synthetic Biology Approaches」 ポスター🔗

Lecturer

Prof. Xiaoxia Nina Lin(ミシガン大学)

Date, Time & Venue

2025年6月27日(金) 15:00-16:00 医学部構内先端科学研究棟 1F大セミナー室

Abstract

Microbes are everywhere in nature and they live in diverse communities that show remarkable

metabolic capabilities and robustness. On the other hand, disruption of microbiome homeostasis

and associated changes in the community’s structure/function underlies numerous health or

environmental issues. My lab has been developing methods and tools rooted in engineering to

study microbial communities in order to discover the underlying ecological, cellular, and

molecular mechanisms. In particular, we have pioneered a technological pipeline, based on

nanoliter-scale water-in-oil microfluidic droplets, to co-cultivate sub-communities and

characterize interactions between community members. A number of technological modules

have been created and the pipeline is being applied to the investigation of a range of health or

environment related microbiomes. A second distinct yet complementary research thrust in my

lab, inspired by naturally occurring synergistic microbial communities, has been the design and

construction of synthetic consortia for microbial engineering. As an example, we have developed

a high-throughput strain screening method based on compartmentalized co-cultivation. We have

also engineered a portfolio of modular microbial consortia for bioprocessing. For instance, to

make use of lignocellulosic biomass, we designed and optimized a consortium consisting of a

cellulolytic fungus capable of hydrolyzing hemicellulose and cellulose (main components of

lignocellulosic biomass) into mono and oligosaccharides and a genetically engineered bacterium

for converting mono and oligosaccharides into isobutanol, an advanced biofuel. The general

framework of engineering defined co-cultures of coordinated specialists offers tremendous

potential for developing novel biotechnologies for numerous applications in biomanufacturing

and bioremediation.

Contact

統合生命科学専攻 生態進化学分野

生命情報解析教育センター【CeLiSIS】
東樹 宏和(toju.hirokazu.4c@kyoto-u.ac.jp