Adjusting to Changing Regulation, Integrating New Technologies and Moving with the Times at ASHG 2015

SelectScience spoke to Dr Chris Gunter, ASHG 2015 Program Chair, about this year’s show

4 Nov 2015
Lois Manton-O'Byrne, PhD
Executive Editor

Editorial article

Dr Chris Gunter, Associate Director of Research at the Marcus Autism Center & Children's Healthcare of Atlanta and Associate Professor at Emory School of MedicineASHG The American Society of Human Genetics (ASHG), founded in 1948, is the primary professional membership organization for human genetics specialists worldwide. The Society’s nearly 8,000 members include researchers, academicians, clinicians, laboratory practice professionals, genetic counselors, nurses and others who have a special interest in the field of human genetics.

The American Society for Human Genetics meeting (ASHG) 2015 is the largest human genetics meeting and expo worldwide, attracting over 6,500 attendees and over 200 exhibitors. SelectScience spoke to Dr Chris Gunter, Program Chair of ASHG 2015, on the themes that stood out at ASHG 2015, up-and-coming technologies and methods in the field of human genetics and the challenges faced by geneticists today. When not hosting discussions on cutting-edge science, Dr Gunter is the Director of Communications at the Marcus Autism Center & Children's Healthcare of Atlanta. She is also an Associate Professor in Pediatricsat Emory School of Medicine.

“I’m a human geneticist by training”, explained Dr Gunter, “but have also been involved in science communication, working as an editor at Nature, and more recently with bioRXiv.” Scientific communication was a big theme at this year’s ASHG, witha very well-received Distinguished Speakers Symposium on the topic. The Program Committee also relaxed of certain policies to make it easier for researchers to share their work. “We listened to a lot of feedback from our members, and decided we couldn’t fight the inevitable any more”, revealed Dr Gunter. Unless the owners opt-out, pictures of posters were allowed this year, and a website has been set up to allow sharing of presentation slides. Said Dr Gunter, “this is quite a big deal, and is very new for us” but it’s what many scientists want, and, ultimately, is the future.

Another important topic at this year’s conference was the emergence of CRISPR as a reported technique. “Last year people were talking about it a lot, saying they were going to use it. This year, at least two of the plenary talks included the use of CRISPR in functional studies, which is exciting to see,” explained Dr Gunter. CRISPR was also mentioned at this year’s policy forum, as ASHG has formed a committee to produce a policy in this area. In addition, the winners of this year’s Gruber prize, Drs Emmanuelle Charpentier and Jennifer Doudna, who won with their discovery of the CRISPR technique, gave a lecture on the future of genome editing. It was important for ASHG to decide “how we're going to lead the field in this”, explained Dr Gunter, as CRISPR will be “huge”.

NGS regulation

With the increase in the use of next generation sequencing (NGS), another concern at ASHG 2015 was the increasing regulation of the technique. In the USA in particular, regulators have been clamping down on pathway genomics “which directly affects consumer testing”, Dr Gunter explained. This regulation was addressed at this year’s “Building Bridges” session, which hosted speakers from both ASHG and the European Society for Human Genetics (ESHG). It was “fascinating” to hear how viewpoints differed between the USA and Europe, and how regulation differed too, said Dr Gunter. In the USA, the FDA is seeking to regulate the use of genomics, whereas in Europe, the ESHG is lobbying against a regulation proposed in the EU Parliament that calls for mandatory genetic counseling for all genetic tests..

The future for genetics, explained Dr Gunter is “more data”. The 1000 Genome project was published recently, which seeks to provide a comprehensive resource of genetic variability. This was a “huge project and a massive amount of data” said Dr Gunter, so better ways to interpret that data are also important. For example, with improved interpretation, a group of researchers are hoping to pinpoint the clinical significance of certain protein mutations in BRCA1, which could impact the treatments of certain cancers.

Learn more about the exciting innovations from ASHG 2015, and find out the latest news and methods in genetics research, here.

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Genome AnalysisGenomics, the study of genomes, includes functional genomics, evolutionary genomics and comparative genomics. There are many genomic technologies such as DNA sequencing of whole genomes, computational biology and bioinformatics. DNA and nucleic acids must be isolated and concentrated from cells for analysis with kits, automated analyzers and software. Other useful technologies for studying genomics include PCR, microarrays and electrophoresis.Protein PurificationProtein purification is a vital step in drug discovery, therapeutics, biotech and life science research. The purification process typically involves subcellular or membrane protein extraction with cell lysis kits, separation of proteins from cell debris by filtration or spin columns, and the isolation of proteins of interest from other proteins and impurities with affinity purification (including fusion protein tags and antibody binding proteins A, G and L), immunoprecipitation or chromatographic methods, such as ion exchange, size exclusion and immobilized metal affinity chromatography. All purification methods come in multiple formats for your laboratory needs, including agarose or magnetic beads, resins, columns and filter plates. Find the best protein purification equipment in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Gene Expression and Molecular CloningMolecular cloning is a set of techniques that utilizes vectors to transfer recombinant DNA into host cells and is an essential tool for investigating the expression of genes and proteins in bacterial or mammalian cells. A variety of vectors optimized for gene cloning and expression in a range of host organisms are available, alongside competent cells for genetic replication. Here, you can explore a range of molecular tools, high-quality genomic and cDNA libraries, premade clones, transformation and transfection reagents and mutagenesis or gene expression detection assays and expression arrays. Find the best gene expression and molecular cloning products in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.Clinical ChemistryBiochemistry (or clinical chemistry) involves the analysis of bodily fluids using chemical tests. Techniques used include HPLC, chromatography, spectroscopy, mass spectrometry, immunochemical, electrophoresis, turbidometric / spectrophotometric assay, MRI and ISE analysis. Tests are often carried out on plasma or serum but urine (urinalysis) and fecal specimens are also processed.Clinical GeneticsMolecular Genetics covers the analysis of hereditary genetic disease and chromosomal abnormalities. Genetics can be analysed using DNA, RNA, and protein microarrays, PCR, RT PCR and DNA sequencing. Genetic equipment includes genetic workstations, thermal cyclers, cooling blocks and electrophoresis products. Diagnostic kits are used for DNA / RNA extraction and purification.RegulatoryPharmaceutical regulations impact on all areas of drug development, manufacture and control and supply. Services are provided from the early stages of drug development and clinical trials through to dossier submission, approval and marketing. Regulatory also includes submission of analytical studies from the pharmaceutical product and safety. NGSProtein InteractionsProtein interactions are essential for understanding cellular processes, as proteins work together to carry out biological functions. Studying protein interactions can provide insights into disease mechanisms, drug development, and cell signaling pathways. Explore the best tools for protein interaction research in our peer-reviewed product directory; compare products, check reviews, and get pricing directly from manufacturers.Genome EditingGenome editing involves altering the DNA of an organism, which holds promise for disease treatment, agriculture, and gene therapy. Techniques like CRISPR-Cas9 are revolutionizing this field, enabling precise genetic modifications. Explore genome editing tools in our peer-reviewed product directory; compare products, check reviews, and get pricing directly from manufacturers.MutationMutations are changes in the DNA sequence that can lead to diseases, including cancer and genetic disorders. Analyzing mutations is crucial in diagnostics, drug development, and personalized medicine. Explore mutation detection tools in our peer-reviewed product directory; compare products, check reviews, and get pricing directly from manufacturers.Clinical GeneticsGenetic VariationASHGCRISPRCRISPR technology enables precise editing of genes, allowing scientists to modify DNA at specific locations. This revolutionary tool is used in genetic research, drug development, and gene therapy. CRISPR has applications in agriculture, disease treatment, and creating genetically modified organisms (GMOs). Explore CRISPR solutions in our peer-reviewed product directory; compare products, check reviews, and get pricing directly from manufacturers.
Adjusting to Changing Regulation, Integrating New Technologies and Moving with the Times at ASHG 2015