The iGEM 2024 Collection brings together studies at the intersection of synthetic biology, systems biology and bioinformatics. The articles present biological tools and design strategies for applications in human health, microbial engineering, plant biotechnology, agriculture, genomic medicine and sustainability. They include the in silico design of selenopeptides for XP and skin cancer, a modular CRISPRi toolkit for Acinetobacter baumannii, prime editing and lipid nanoparticle delivery for cystic fibrosis, plant-based protein-expression vectors, model-guided miRNA detection systems, and an AND-gate biosensor for regulated expression near plant roots. The collection also examines enzyme-displaying spores for mixed-fiber textile recycling and conformal prediction to support reliable machine-learning models in genomic medicine. Together, these contributions show how computational modelling, genetic engineering, biosensing and data-driven methods can support the design, evaluation and application of biological systems.
Systems and Synthetic Biology have become crucial in addressing some of the world's most pressing challenges by offering innovative solutions that intersect with various aspects of modern life. The integration of these fields into healthcare, agriculture, technology, and sustainability offers transformative impacts. Such interdisciplinary research has unlocked new diagnostic and therapeutic capabilities, made agricultural practices more resilient and productive under climate pressures, and provided advanced technological solutions through AI integration. Despite these advancements, significant obstacles remain, which necessitate ongoing exploration and cross-disciplinary collaboration to maximize the full potential of these technologies.
The iGEM 2024 Collection brings together key themes at the forefront of Systems Biology and Synthetic Biology, reflecting their transformative impact. This collection curates innovations and research that address global challenges demonstrating how the interplay of biology and technology can shape a responsible and impactful future.
The iGEM 2024 Collection brings together studies at the intersection of synthetic biology, systems biology and bioinformatics. The articles present biological tools and design strategies for applications in human health, microbial engineering, plant biotechnology, agriculture, genomic medicine and sustainability. They include the in silico design of selenopeptides for XP and skin cancer, a modular CRISPRi toolkit for Acinetobacter baumannii, prime editing and lipid nanoparticle delivery for cystic fibrosis, plant-based protein-expression vectors, model-guided miRNA detection systems, and an AND-gate biosensor for regulated expression near plant roots. The collection also examines enzyme-displaying spores for mixed-fiber textile recycling and conformal prediction to support reliable machine-learning models in genomic medicine. Together, these contributions show how computational modelling, genetic engineering, biosensing and data-driven methods can support the design, evaluation and application of biological systems.
Systems and Synthetic Biology have become crucial in addressing some of the world's most pressing challenges by offering innovative solutions that intersect with various aspects of modern life. The integration of these fields into healthcare, agriculture, technology, and sustainability offers transformative impacts. Such interdisciplinary research has unlocked new diagnostic and therapeutic capabilities, made agricultural practices more resilient and productive under climate pressures, and provided advanced technological solutions through AI integration. Despite these advancements, significant obstacles remain, which necessitate ongoing exploration and cross-disciplinary collaboration to maximize the full potential of these technologies.
The iGEM 2024 Collection brings together key themes at the forefront of Systems Biology and Synthetic Biology, reflecting their transformative impact. This collection curates innovations and research that address global challenges demonstrating how the interplay of biology and technology can shape a responsible and impactful future.