Synthetic biology advances can improve crop yield, nutrient usage, and reduce fertilizer demands, ultimately enhancing global food production and nutritional quality.

The impact of synthetic biology for future agriculture and nutrition.

Phytomicrobiome engineering offers potential for improving plant growth-promoting traits in agriculture by engineering non-model bacteria and microbiomes, addressing environmental concerns and promoting beneficial interactions.

Microbiome Engineering: Synthetic Biology of Plant-Associated Microbiomes in Sustainable Agriculture.

Synthetic biology techniques like directed evolution can improve food safety, security, and sustainability by engineering proteins for specific applications.

Proteins in Synthetic Biology with Agricultural and Environmental Applications

Synthetic biology has the potential to revolutionize the future of food by engineering cells that can transform renewable raw materials into essential components, functional additives, and nutritional chemicals.

Synthetic biology for future food: Research progress and future directions

Food synthetic biology can effectively synthesize proteins, addressing global protein supply challenges and promoting sustainable food production.

Food synthetic biology-driven protein supply transition: From animal-derived production to microbial fermentation

Synthetic biology offers low-cost, global health solutions, but requires careful planning and engineering for biosafety.

Preparing synthetic biology for the world

US synthetic biology companies emphasize environmental gains and free-market approaches, but little mention is made of social dimensions like access, justice, and equity.

Exploring presentations of sustainability by US synthetic biology companies

Synthetic biology can contribute to sustainable development by developing new products, materials, and services, but support for initiatives in developing countries is needed to ensure these benefits are accessible to all.

Harnessing synthetic biology for sustainable development

Improving biosecurity for synthetic biology requires treating security as an investment in future applicability, engaging social scientists and policy makers early in technology development, and coordinating global stakeholders to ensure acceptable risk levels.

Building biosecurity for synthetic biology

Synthetic biology has the potential to revolutionize agriculture, but requires mindset shifts, training, and infrastructure investment to overcome barriers and propel another Green Revolution.

Revolutionizing agriculture with synthetic biology

Public engagement in bioengineering and synthetic biology can improve research outcomes, but ensuring public perspectives influence science decision-making remains a challenge.

Is Public Engagement in Bioengineering and Synthetic Biology Improving Research Outcomes?

Synthetic biology has the potential to significantly increase productivity and sustainability in agriculture, addressing global challenges and promoting prosperity in primary industries.

Emerging Opportunities for Synthetic Biology in Agriculture

Synthetic biology presents both opportunities and risks for the global bioeconomy, and addressing these challenges requires a comprehensive, top-down governance approach.

Opportunities, Challenges, and Future Considerations for Top-Down Governance for Biosecurity and Synthetic Biology

Synthetic biology and metagenomics can merge to engineer complex biological systems and promote biodiversity sustainability, with potential applications in waste management, oil spills, and plastic degradation.

Synthetic biology encompasses metagenomics, ecosystems, and biodiversity sustainability within its scope

Synthetic biology can revolutionize various industries, including pharmaceuticals and environmental protection, but ethical considerations are crucial in this rapidly advancing field.

Environmental Problem Solving Through Synthetic Biology

Bionics and synthetic biology will revolutionize engineering and industry, with potential applications in medicine, engineering processes, and DNA storage, but ethical issues and public debate are crucial.

Industry 5.0—The Relevance and Implications of Bionics and Synthetic Biology

Synthetic biology has the potential to revolutionize industrial biotechnology, with potential applications in bio-derived materials, chemicals, and consumer products.

Developing synthetic biology for industrial biotechnology applications

Bioengineering challenges include molecule selection, pathway design, and host engineering, with a focus on improving reproducibility and predictability for successful commercialization of biofuels, polymers, and therapeutics.

Synthetic and systems biology for microbial production of commodity chemicals

Public support for synthetic biology solutions for environmental problems is highest for bioremediation of waterways, with moderate to high support for genetically engineering endangered species, invasive pests, and coral.

Public Perceptions of Synthetic Biology Solutions for Environmental Problems

Synthetic biology advances could revolutionize environmental research by using engineered microbes as micron-scale sensors to tackle longstanding problems in Earth and environmental sciences.

Translating New Synthetic Biology Advances for Biosensing Into the Earth and Environmental Sciences

What is the potential of synthetic biology and bioengineering in addressing global food security and environmental sustainability?

These studies suggest synthetic biology and bioengineering can enhance global food security and environmental sustainability by improving crop yields, nutrient usage, and protein synthesis, while also addressing environmental concerns and promoting sustainable development.