Indibi Angel, Cao Pengfei, Brandizzi Federica, Mortimer Jenny, Swaminathan Kankshita, Tsai Chung-Jui, Hamberger Bjoern
Great Lakes Bioenergy Research Center, Michigan State University, East Lansing, Michigan, 48824, USA.
Department of Biochemistry and Molecular Biology, Michigan State University, East Lansing, Michigan, USA.
Plant J. 2025 Jul;123(2):e70294. doi: 10.1111/tpj.70294.
Advances in engineering of bioenergy crops were driven over the past years by adapting technological breakthroughs and accelerating conventional applications but also exposed intriguing challenges. New tools revealed rich interconnectivity in the exponentially growing and dynamic 'big' omics data' of metabolomes, transcriptomes, and genomes at previously inaccessible magnitude (global, cross-species, meta-) and resolution (single cell). Insights enabled fresh hypotheses and stimulated disciplines such as functional genomics with discovery of broad regulatory networks and their determinants, that is, DNA parts, including promoters, regulatory elements, and transcription factors. Their rational design, assembly into increasingly complex blueprints, and installation into diverse chassis is an existing frontier that may benefit from emerging technologies to address bottlenecks. Interweaving nature-inspired to fully synthetic parts has already allowed building of fine-tuned regulatory circuits, or new-to-nature metabolic routes insulated from the biological context of the chassis species. Similarly, developments and the evolving need for unifying principles in plant transformation and species-agnostic technologies highlight future opportunities for engineering the next generation of bioenergy plants.
在过去几年里,生物能源作物工程取得的进展得益于技术突破的应用和传统应用的加速,但也面临着一些有趣的挑战。新工具揭示了代谢组、转录组和基因组等呈指数增长且动态变化的“大”组学数据中丰富的相互联系,其规模(全局、跨物种、元)和分辨率(单细胞)在以前是无法实现的。这些见解催生了新的假设,并推动了功能基因组学等学科的发展,发现了广泛的调控网络及其决定因素,即DNA元件,包括启动子、调控元件和转录因子。对它们进行合理设计、组装成日益复杂的蓝图并植入不同的底盘,这是一个现有的前沿领域,可能会受益于新兴技术来解决瓶颈问题。将受自然启发的元件与完全合成的元件交织在一起,已经能够构建出经过微调的调控回路,或者构建出与底盘物种的生物学背景相隔离的全新代谢途径。同样,植物转化和物种无关技术中统一原则的发展及不断演变的需求,凸显了工程改造下一代生物能源植物的未来机遇。