The Journal of Organic Chemistry · 2020 · 146 citations · 31 references
PharmacyBiochemistryBiotechnologyDrug DiscoveryGreen ChemistryPharmaceutical ManufacturingBiopharmaceutical ManufacturingGreen CatalysisNucleic Acid EngineeringNucleic Acid SynthesisOligonucleotide ChemistryChemical Modification Of OligonucleotidesManufacturingOligonucleotide PurificationOligonucleotide SynthesisPharmaceutical Cost BurdenPreclinical Drug DevelopmentProcess Mass Intensity ReductionPurification Of Synthetic Oligonucleotides
With a renewed and growing interest in therapeutic oligonucleotides across the pharmaceutical industry, pressure is increasing on drug developers to take more seriously the sustainability ramifications of this modality. With 12 oligonucleotide drugs reaching the market to date and hundreds more in clinical trials and preclinical development, the current state of the art in oligonucleotide production poses a waste and cost burden to manufacturers. Legacy technologies make use of large volumes of hazardous reagents and solvents, as well as energy-intensive processes in synthesis, purification, and isolation. In 2016, the American Chemical Society (ACS) Green Chemistry Institute Pharmaceutical Roundtable (GCIPR) identified the development of greener processes for oligonucleotide Active Pharmaceutical Ingredients (APIs) as a critical unmet need. As a result, the Roundtable formed a focus team with the remit of identifying green chemistry and engineering improvements that would make oligonucleotide production more sustainable. In this Perspective, we summarize the present challenges in oligonucleotide synthesis, purification, and isolation; highlight potential solutions; and encourage synergies between academia; contract research, development and manufacturing organizations; and the pharmaceutical industry. A critical part of our assessment includes Process Mass Intensity (PMI) data from multiple companies to provide preliminary baseline metrics for current oligonucleotide manufacturing processes.
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