COOKIES: By using this website you agree that we can place Google Analytics Cookies on your device for performance monitoring. |
University of Cambridge > Talks.cam > Physical Chemistry Research Interest Group > Tissue-like materials from communicating droplet networks
Tissue-like materials from communicating droplet networksAdd to your list(s) Download to your calendar using vCal
If you have a question about this talk, please contact Alice Wood. Synthetic biology is being used to build devices through both top-down and bottom-up approaches. For example, genome engineering has been used to reprogram cells, and DNA origami has been used to produce a variety of nanodevices. While progress has been made on the bottom-up assembly of minimal cells, synthetic tissues have so far received limited attention. We have assembled networks of aqueous droplets joined by lipid bilayers. The droplets in the networks can communicate with each other and with the environment through engineered protein pores. To mimic tissues, droplet networks should be endowed with various properties including the ability to store and use energy, to move and change shape, to detect signals, to carry out computations and take up and release molecules. To a modest degree, these goals have been achieved and like tissues the networks can exhibit emergent properties. Further, designed networks of many thousands of droplets have been fabricated by 3D printing. We aim to interface droplet networks with living tissues and control them with electrical or optical signals This talk is part of the Physical Chemistry Research Interest Group series. This talk is included in these lists:
Note that ex-directory lists are not shown. |
Other listsCambridge Public Policy Workshops Introduction to Molecular Biology Techniques Clare Hall America Week Martin Centre Research Seminar Series - 47st Annual Series of Lunchtime Lectures Cambridge University United Nations Association (CUUNA) CEB Career TalksOther talksNatHistFest: the 99th Conversazione and exhibition on the wonders of the natural world. Climate change, species' abundance changes and protected areas Cohomology of the moduli space of curves Deficits in axonal transport in ALS and Charcot-Marie-Tooth disease models What You Don't Know About God Taking Investment in Education Seriously - Two Part Series |