Jul 2026· Biotechnology and Bioengineering· Vol 123, pp. 2491 - 2519· 0 citations· 283 references
Medicine
TL;DR
To completely translate synthetic biology from the laboratory to the field, improved delivery methods, monitoring strategies, and harmonized regulatory frameworks should be encouraged and the development of robust and controllable microbial chassis should be emphasized.
Abstract
Synthetic biology has recently proven to be a valuable tool for enhancing agriculture even in the face of environmental and biological stresses. Understanding the challenges that militate synthetic biology will assist in ensuring safe, stable, and scalable crop production. Thus, we examined the challenges limiting synthetic biology applications in engineering plant–microbe partnerships and highlighted future research directions. Ecological, biological, technical, and regulatory barriers to synthetic biology‐driven plant–microbe engineering are the challenges examined in this review. Profound insight into these challenges will lead to a shift toward systems‐level approaches that integrate multiomics analyses, predictive modeling, and framework‐responsive genetic designs. To completely translate synthetic biology from the laboratory to the field, improved delivery methods, monitoring strategies, and harmonized regulatory frameworks should be encouraged. In addition, the development of robust and controllable microbial chassis should be emphasized.
Microbial bioinoculants are increasingly positioned as key technological enablers of sustainable and climate-resilient agriculture, offering biological routes to enhance nutrient use efficiency, suppress pathogens, and improve crop tolerance to abiotic stress while reducing dependence on synthetic agrochemicals. Despit...
Suvendu Das, P. Verma, Pil Joo Kim et al.· Microbiology Research· 0 citations
Efficient engineering of rhizobacteria for real soil environments remains at an early stage, but continued integration of synthetic biology with ecological and biophysical understanding of the rhizosphere will pave the way for programmable plant–microbe systems.
Elena Garcia-Perez, Louis Perrin, Jacob G. Malone et al.· Microbiology· 0 citations
Medicinal plants remain one of the most important sources of therapeutically relevant compounds for pharmaceutical, nutraceutical, and biotechnological applications. However, the naturally low abundance of many specialized metabolites, considerable phytochemical variability, and increasing environmental pressures conti...
K. Hnatuszko-Konka, Aneta Gerszberg, M. Libik-Konieczny et al.· International Journal of Mol...· 0 citations
Recent advances in how climate change affects plant–microbe interactions, soil antibiotic resistance, and plant‐associated microbiomes, including shifts in the distribution of plant pathogens are discussed.
Ashleigh Holmes, Miguel A. Matilla· Microbial Biotechnology· 0 citations
A practical framework for selecting appropriate gene delivery strategies for microalgal synthetic biology is presented, emphasizing the need for delivery platforms compatible with diverse cargos, recipient species, and engineering applications.
Minju Cho, Y. Sung· Molecular Biology Reports· 0 citations
A macroalgae-focused approach is proposed that delivers a unique, macroalgae-specific computational and experimental framework, providing a future roadmap toward intelligent smart marine biotechnology and sustainable development to drive the global blue bioeconomy.
Haiqin Yao, Xiao-Ping Huang, Mingchen Li et al.· SynBio· 0 citations
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