Crystals And Catalysts

For any medical reason, sometimes artificial organs are required to take place instead of the real organ in the human body. But making artificial organs, which have complicated and  intricate structures, aren't easy to make and there have been many methods which have been devised but don't work as efficiently.  Leon Bellan is an assistant professor of mechanical engineering at Vanderbilt University, who has been working with candy floss machines, getting them to spin out networks of tiny threads similar in size, density and complexity to the patterns formed by capillaries - the minuscule, thin-walled vessels that deliver oxygen and nutrients to cells and carry away waste. His main aim has been to make fibre networks that can be used as templates to produce the capillary systems required to create full-scale artificial organs. This research has been published in the Advanced Healthcare Materials  journal. Bellan and his colleagues have been successful in using their

Journal: Exploring Host-Microbiome Interactions using an in Silico Model of biomimetic robots and engineered living cells – Published in Scientific Reports. Dr’s : Heyde and Ruder Funded by : National science Foundation, USA Understanding the human body is vital to understanding how the body works and how drugs can interact with the body. Microbiomes play an important role in the regulation of the behaviour and health of its host (which could be the human body or part of it). Within this new piece of research, scientists have prepared an in silico model of a living microbiome, engineered with synthetic biology, which interfaces with a biomimetic, robotic host. They used this technique to copy complex behaviours in the host giving larger understandings of the exploration of inter-kingdom ecological relationships.  The researchers studied two different topologies of information flow, critical for host-microbiome interactions to help us understand biochemical