This Perspective examines the regulatory implications of AI-assisted crop improvement, using illustrative examples where deep learning models have been integrated for protein sequence and structure prediction, and the optimization or design of proteins for improved or novel functionalities.
Abstract
The integration of Artificial intelligence (AI) into crop improvement offers the potential to enhance the precision, efficiency, and speed of development of new varieties. Accelerated genetic gain is promised by an increasing repertoire of AI tools for analyzing large and complex genetic and phenotypic datasets to discover and elucidate traits and predict functional variants that can be realized with the use of, inter alia, genome editing tools. This power, in combination with parallel AI tool development for optimization of genome editing processes, has generated optimism for a new era of smart breeding. This Perspective examines the regulatory implications of AI-assisted crop improvement, using illustrative examples where deep learning models have been integrated for protein sequence and structure prediction, and the optimization or design of proteins for improved or novel functionalities. The examples represent either end of a spectrum of current and emerging genome editing applications: (i) editing of endogenous genes to enhance beneficial alleles and optimize functionality; and (ii) the design and engineering of new (“de novo”) protein domains for customized or new functionality. This range of outcomes can also be achieved without guidance from AI tools, albeit less efficiently, and their regulatory status is generally established. We consider relevant risks associated with these applications and contend that the regulatory status of the potential outcomes should not change, nor should they challenge the foundational applicability of existing regulatory frameworks and approaches for biotech crops. We also briefly discuss some current limitations of AI tools, and broader regulatory and governance considerations.
The future of crop improvement using GEd technologies lies in the harmonisation or alignment of global policies and regulations to support the trade of agricultural produce and ensure that growers and consumers can benefit from GEd technology.
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Zero-knowledge proofs can verify computing results without rerunning workloads or exposing sensitive data. Magnetar helps bring them into the mainstream with support for standard programming languages, major speed gains, and quantum-resistant security. The post Proof-based general-purpose computing with Magnetar appeared first on Microsoft Research.