Investing in new innovative RNA technologies can lead to rapid value creation, and Europe is a fertile ground to hunt for them. The discovery of DNA and the gene underlies much of modern medical therapy, and with the recent advent of successful gene therapies, is undergoing a renaissance. Only in the last couple of decades, however, has the translator of DNA—RNA, gained appreciation as a potential inroad for new therapies and led to the creation of several multibillion-dollar companies. While the field of RNA therapy has started to blossom recently, it, much like biotechnology companies in Europe, has underappreciated potential. The main purpose of RNA, known as messenger RNA or mRNA, is to convert (or translate) the genetic information of DNA into proteins. There are many other forms of RNA now recognized, and each a potential target for therapies to combat disease and illness in ways considered ‘undruggable’ until now. A short list would include the protein synthesis RNAs: messenger RNA (mRNA, Moderna- Covid-19 Vaccine), transfer RNA (tRNA), ribosomal RNA (rRNA), and small nuclear RNAs (snRNA), and regulatory RNAs: micro RNA (miRNA) and short interfering RNA (siRNA). The applications of these RNA ‘species’ is for therapeutics for various treatment applications, including cancer, cardiovascular disease, kidney disease, infectious disease, metabolic disease and more.
Examples of RNA therapies already approved include: Macugen (approved 2004; Pfizer) for the treatment of AMD, Exondys 51 (approved 2016; Sarepta Therapeutics Inc) for the treatment of Duchenne muscular dystrophy; Spinraza (December 2016; Biogen) approved for the treatment of spinal muscular atrophy in children and adults, and Onpattro (August 2018; Alnylam Pharmaceuticals) approved for the treatment of hATTR in adults.
Investing in new innovative RNA technologies can lead to rapid value creation, and Europe is a fertile ground to hunt for them. The discovery of DNA and the gene underlies much of modern medical therapy, and with the recent advent of successful gene therapies, is undergoing a renaissance. Only in the last couple of decades, however, has the translator of DNA—RNA, gained appreciation as a potential inroad for new therapies and led to the creation of several multibillion-dollar companies. While the field of RNA therapy has started to blossom recently, it, much like biotechnology companies in Europe, has underappreciated potential. The main purpose of RNA, known as messenger RNA or mRNA, is to convert (or translate) the genetic information of DNA into proteins. There are many other forms of RNA now recognized, and each a potential target for therapies to combat disease and illness in ways considered ‘undruggable’ until now. A short list would include the protein synthesis RNAs: messenger RNA (mRNA, Moderna- Covid-19 Vaccine), transfer RNA (tRNA), ribosomal RNA (rRNA), and small nuclear RNAs (snRNA), and regulatory RNAs: micro RNA (miRNA) and short interfering RNA (siRNA). The applications of these RNA ‘species’ is for therapeutics for various treatment applications, including cancer, cardiovascular disease, kidney disease, infectious disease, metabolic disease and more.
Examples of RNA therapies already approved include: Macugen (approved 2004; Pfizer) for the treatment of AMD, Exondys 51 (approved 2016; Sarepta Therapeutics Inc) for the treatment of Duchenne muscular dystrophy; Spinraza (December 2016; Biogen) approved for the treatment of spinal muscular atrophy in children and adults, and Onpattro (August 2018; Alnylam Pharmaceuticals) approved for the treatment of hATTR in adults.