The current treatment model for addictive behaviours involves treating people based on the substance or behaviour they are dependent on; however, there are usually underlying psychological reasons for their addictions that might not go away (i.e. treating someone for alcoholism who drinks due to an earlier trauma doesn’t remove the injury of the underlying trauma). The solution is to ‘focus on underlying drivers, not surface symptoms of problematic behaviours’. Rather than assessing and focusing on a diagnostic “what”, Professor Yücel and BrainPark are focusing on the “why”.
How can textiles quietly heal us? Are wearable medical devices of any use when patients are too stigmatised to wear them? What good is fancy cycling gear that won’t protect the rider? Can we close the loop on global fashion, the world’s second biggest polluting industry? From comfort and style to function and protection, clothing fulfils some of the most basic human needs; but now we’re exploring textiles that can contribute to wound healing, or even become body implants through a next generation recycling process.
On the 13th of December 2019, Her Excellency the Honourable Linda Dessau AC, Governor of Victoria, presented the Royal Society of Victoria’s Medal for Excellence in Scientific Research to Professors Anthony Burkitt and Jamie Rossjohn (en route to induct the new Victorian Premier and Cabinet!). Professor Burkitt leads a consortium of Australian universities and institutes to develop a bionic eye and technology, Bionic Vision Australia, and Professor Rossjohn is a leader in the field of immunology, in his quest to better understand how the immune system works and can be manipulated to address disease. The RSV Research Medal awarded to two leaders in their fields recognises both their research career achievements as well as their impact in the scientific community through mentorship and public engagement.
As an animator, most of Dr Drew Berry’s days are spent reading scientific literature and going on long walks to think about what he reads while his computer runs tasks. There is a great deal of data on cellular processes, however the full story is often scattered among multiple studies and papers (i.e. all the details of one machine complex may be comprised of multiple proteins that work together, and each is described individually). Dr Berry therefore has to piece the jigsaw puzzle together to show the big picture while keeping the smaller details accurate. He also has to make artistic choices that may not always reflect the science of what’s going on. Colour is not relevant at the cellular and molecular levels; but he uses it in his animations to evoke moods and emotions, allowing him to better engage his audiences and also make it easier to distinguish between different components and processes of a cell.
Recently, there has been worldwide “hype” around brain interfaces and the seemingly endless possibilities that they provide. Despite bold predictions from several technology companies about the future of neural interfaces (e.g. Elon Musk’s whole brain interface that will allow the brain to connect to an information network), the science of brain augmentation is still in its early days. There is a large gap between what is talked about amongst the hype and what is actually feasible in the near future. Professor Arthur Lowery gave us a reality check of what applications are possible for brain interfaces; electrodes can be placed to stimulate the occipital lobe for sight, the motor cortex for the control of prosthetics, or the speech centre for artificial speech.