Watch a quick video to learn more about the value of studying immunology in new species and in real-world environments. Read the paper here: https://doi.org/10.1126/science.abb8664
Happy to announce that our new paper that developed colorful system to understand immune evasion by transmissible cancers has been published in Science Advances!
Checkout this explainer video above and read the open access paper here: https://doi.org/10.1126/sciadv.aba5031
Excited to be a part of this project to develop a trace detection to that rapidly and accurately detects coronavirus and other surface viruses in the environment
This is the fastest moving project that I have been a part of, but hoping that future projects can also move this fast! https://www.media.utas.edu.au/general-news/all-news/world-first-research-underway-into-detecting-coronavirus-in-the-environment
Q&A on coronaviruses (COVID-19)
Great site for tracking the SARS-Cov-2 virus evolution
How the virus transmission and virulence evolves will play a major role in how long we need or don’t need to hoard toilet paper. https://nextstrain.org/ncov?l=clock
Need an expression vector for a recombinant protein-of-interest that is fused to a fluorescent reporter protein?
Get them plasmids ffrom @Addgene courtesy of @WildImmunity
How do you fight wildlife disease on a broad scale?

Tasmanian devils are the world’s largest carnivorous marsupial and are only found on the island of Tasmania. Over the last 20 years, the wild Tasmanian devil population has been reduced by 77% primarily due to a transmissible cancer known as the devil facial tumour (DFT1) disease. Substantial efforts to conserve this unique species have resulted in several promising outcomes in recent years including several observations of natural tumour regressions in the wild and the development of vaccines and immunotherapies that have induced DFT1 tumour regressions in controlled trials. However, wild devil populations have not recovered and in 2014 a second lethal transmissible cancer (devil facial tumour 2; DFT2) was discovered. This new disease, combined with other ongoing threats to devils, such as road fatalities and habitat loss, means their future remains uncertain. Our team at the Menzies Institute for Medical Research and the School of Medicine at the University of Tasmania, working with members of the Save the Tasmanian Devil Program and USDA National Wildlife Research Center, has developed a plan to modify a highly successful oral bait vaccine strategy to vaccinate wild devils across the state and combat devil facial tumour transmission. Oral bait vaccines wrap an oral/edible vaccine in food bait that is then eaten by an animal. Once the animal chews through the bait, it bursts the vaccine packet and gets immunised. This strategy eliminates the need to trap and inject every animal with the vaccine and has been used to eliminate rabies transmission from several entire countries. This project is in its early stages, but this approach has the potential to control devil facial tumours transmission across the entire state of Tasmania to finally allow wild devil populations to rebound. To learn more about this innovative approach you can read the paper at (https://www.tandfonline.com/doi/full/10.1080/14760584.2020.1711058) or go to the website of Dr Andrew Flies at https://wildimmunity.com/.