Paul Szauter, PhD, Chief Scientific Officer, EquiSeq – Page 3

Generatio GmbH – Center for Animal Genetics Adds P8 and K1 Tests

Tubingen, Germany Generatio GmbH – Center for Animal Genetics (CAG) has added the P8 variant of PYROXD1 and the K1 variant of COL6A3 to its Variant Panel. These tests are now available to horse owners in the EU and UK. The launch followed licensing of these tests from EquiSeq. Generatio GmbH – Center for Animal…

The K1 Genetic Variant Affects COL6A3, a Gene Encoding a Collagen

Contents Introduction The K1 genetic variant that has been part of EquiSeq’s Myopathy Panel since October 2019 is a missense allele of COL6A3, a gene encoding a collagen [1]. Collagens are a family of proteins that are the main structural components of the connective tissue. Collagens also guide bone formation and play an important role in…

The P8 Genetic Variant Affects PYROXD1, a Gene Required for Oxidative Defense

Contents Introduction The P8 genetic variant that has been part of EquiSeq’s Myopathy Panel since October 2019 is a missense allele of PYROXD1, a gene required for oxidative defense [1]. Mutations of the human PYROXD1 gene are associated with Myofibrillar Myopathy 8 in humans [1]. The P8 allele of equine PYROXD1 changes an aspartic acid (D) to a histidine (H),…

Podcast and Videos Explore Muscle Disease

Albuquerque, New Mexico July 2020 was a great month for horse owners seeking to understand muscle disease. Eden River Equestrian interviewed Paul Szauter, EquiSeq’s Chief Scientific Officer, for episode 86 of their Come Along for the Ride podcast. In the interview, Dr. Szauter talked about the effects of the genetic variants that are included in EquiSeq’s Myopathy…

Peer Review Fails to Identify Errors in Inconclusive Study of Genetic Variants of Equine Muscle Genes

This blog post is a discussion of a paper published by Williams et al. in a recent issue of Equine Veterinary Journal [1]. The paper aims to identify genetic variants that might be responsible for Myofibrillar Myopathy (MFM) in Warmbloods. The authors use a candidate gene approach, searching for variants of eight of the nine genes known…

Genetic Basis of Exercise Intolerance in Arabians

Paul Szauter, PhD, Chief Scientific Officer of EquiSeq, gave a presentation titled “Genetic Basis of Exercise Intolerance in Arabians” at the Al Khamsa Annual Meeting and Convention in Fayetteville, Arkansas on October 13, 2019. EquiSeq is a company based in Albuquerque, New Mexico, that develops and sells genetic tests for horses. Exercise intolerance is known…

EquiSeq’s Kirsten Dimmler Accepted to PhD Program at the University of Minnesota

Albuquerque, NM Kirsten Dimmler, a Bioinformatics Analyst at EquiSeq, has accepted an offer of admission to graduate school in the College of Veterinary Medicine at the University of Minnesota. Kirsten will be entering the laboratory of Dr. Molly McCue, a leading veterinary expert in the field of equine genetics and genomics. Her admission to graduate…

The Px Allele of CACNA2D3 May Affect Splicing of a Component of the Voltage-Gated Calcium Channel

A Genome Wide Association Study (GWAS) of Recurrent Exertional Rhabdomyolysis (RER) identified a region on chromosome 16 as the only part of the genome associated with RER [1]. One of the populations in the study showed an association between RER and five Single Nucleotide Polymorphisms (SNPs) that define a 71.6 kb interval within the 822…

Mechanism of muscle damage in filaminopathy

Several recent studies address the mechanism of muscle damage in filaminopathy. Filaminopathy is a term that describes muscle disorders resulting from mutations in the FLNC gene, which encodes filamen C. Two different clinical disease states are included in filaminopathy: Myofibrillar Myopathy 5 (MFM5) and Distal Myopathy 4 (DM4). Studies on the mechanism of muscle damage in filaminopathy…

University of Minnesota Opens Study of Genetic Basis of Muscle Disorders in Horses

Saint Paul, Minnesota The Equine Genetics and Genomics Laboratory at the University of Minnesota is conducting a study using 3,000+ horses to study the genetic mechanisms behind different muscle disorders in horses and how diet and exercise may impact these disorders. The results of this study will provide veterinarians, researchers, and horse owners with information…