When we watch elite show jumping at the Olympics, Spruce Meadows, or in Wellington, weโ€™re seeing the top echelon of equine athletes compete on equal footing. Breeding, training, rider skill and overall equine wellness factors into each horse-and-rider combination and determines if and when they find success in the ring. Watching these high-performance horses inspires many amateurs and professionals alike to ride better and train smarter to fulfil their own competitive dreams. But what if there was a shortcut available to you, not through better horsemanship or a well-bred horse, but instead a new animal that is genetically modified and developed in a lab? That may seem like far-fetched futurism, but in fact itโ€™s far closer to reality than we imagine.

Building a Better Equine Genome

The Argentinian firm Kheiron-Biotech has developed a technique using CRISPR (pronounced โ€œcrisperโ€, which stands for Clustered, Regularly Interspaced Short Palindromic Repeats) to focus on and enhance the action of the myostatin gene sequence which controls and limits the growth of muscles. Basically, theyโ€™ve created a scientific way to develop horses with more muscle mass, which theoretically would make these animals run faster for longer distances โ€“ and yes, jump higher. At the end of 2017, Kheiron-Biotech announced that they have healthy embryos created by this type of gene splicing that will be born by 2019.

The science behind these so-called โ€œsuper horsesโ€ was originally developed for use in humans. The Broad Institute of MIT and Harvard in Cambridge, MA, was founded in 2004 in the hopes of bettering human health using genomics, the branch of molecular biology concerned with the structure, function, evolution, and mapping of genomes. Scientists at the Broad Institute identified a new system for human genome editing with the potential to increase the power and precision of genome engineering. CRISPR is the hallmark of a bacterial defense system that forms the basis for CRISPR-Cas9 genome editing technology that can be programmed to target specific stretches of genetic code and edit DNA at precise locations. It can also be utilized for other purposes, such as new diagnostic tools. The researchers who work in this area see such scientific advancements as a way to eradicate cancer, cystic fibrosis, Parkinsonโ€™s, heart disease, and a host of other illnesses and debilitating conditions.

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