This article provides a comprehensive overview for researchers, scientists, and drug development professionals on how computational systems biology models are revolutionizing the study of plant development and creating new pipelines...
This article explores the transformative impact of quantitative biology on plant science, a field increasingly critical for drug discovery and biomedical innovation.
This article provides a comprehensive analysis of the evolution of Nucleotide-binding Leucine-rich Repeat (NLR) genes across the plant kingdom, from early algae to modern crops.
This article provides a comprehensive analysis of Nucleotide-Binding Site (NBS) domain genes, the largest class of plant resistance (R) genes that form the core of the plant innate immune system.
This article provides a comprehensive examination of the methodologies and challenges in linking plant genomic information to observable traits, a field critical for accelerating crop improvement and plant-based drug discovery.
This article presents a comprehensive roadmap for plant biosystems design, an emerging interdisciplinary field that shifts plant science from trial-and-error approaches to predictive, model-driven strategies. Targeting researchers, scientists, and drug development professionals, we explore the foundational theories, advanced methodologies, and practical applications of designing plant systems. The scope spans from theoretical frameworks like graph theory and mechanistic modeling to cutting-edge tools such as genome editing, synthetic circuits, and multi-omics integration. We address critical challenges in troubleshooting and optimization, including host-microbiome interactions and pathway stability, and highlight validation techniques from computational modeling to field trials. This roadmap outlines how plant biosystems design can accelerate the development of resilient crops and sustainable plant-based platforms for producing high-value biomolecules, ultimately contributing to food security, biomedical advancement, and a robust bioeconomy.
Discover how paleoproteomics is revolutionizing our understanding of ancient hominins through protein analysis of 2-million-year-old fossils.
Discover how bioremediation uses natural microorganisms to reduce cancer-causing pollutants in agricultural soils and protect our food supply.
Explore how mathematical biology and network approaches are revolutionizing sustainability science through ecological modeling and systems thinking.
Explore the fascinating world of plant reproduction, from evolutionary adaptations to molecular communication and pollination strategies.