Thanks for joining us for round two of our blog series, celebrating the very worthy winners of the IChemE Global Awards 2016. With help from our friends at Morgan Sindall we have produced a video for every category, and each one includes a special interview with the winners.
Yesterday we looked at some life-changing products, and the theme remains the same in today’s post. However today’s products have a little something extra – they have been specially designed to help tackle a problem in low-middle income countries.
This goes to show that chemical engineering really does matter, and that the work of chemical engineers doesn’t just make our lives easier – it is solving some of the world’s biggest poverty issues.
Enjoy the three videos below, and stay tuned the rest of the week when we reveal even more winning projects.
They are one of only a handful of companies involved in every aspect of pharmaceutical production from start to finish; from research to supply. So next time you pick up a prescription, there’s a good chance that AstraZeneca might have been involved.
I’ve blogged a few times over the past five months about 3D printing. It’s one of those technological developments which has attracted the attention of chemical engineers, despite some apparent anomalies.
Our profession spends much of its time producing items on a massive scale. We deal in huge volumes which provide food, energy, water and healthcare to hundreds of millions of people.
By contrast, 3D-printing operates in small numbers – even ones and twos. In fact, I think 3D-printing is synonymous with the phrase ‘hand-made’ – unique, custom-designed, high quality and carefully crafted. Who knows, 3D printing may herald the end of some traditional skills.
Another fascinating feature of 3D-printing is its ability to produce or mimic things we find difficult. An example is the shell of a starfish.
Echinoderm sea creatures such as brittle stars have ordered rounded structures on their bodies that work as lenses to gather light into their rudimentary eyes. Under the microscope, the shell looks like little hot air balloons that are rising from the surface.