RoleCurrent climate change concerns and the post COVID world call for urgent solutions to develop sustainable societies. Nonfood biomass instead of petroleum is an option to produce cleaner biofuels, bioplastics and more. To achieve some sustainable goals, biomass needs to … Continue reading
The UN Sustainable Development Goals, COP26 and more forums worldwide urge for positive action on climate change. Innovative sustainable solutions can help to build a better climate to develop sustainable societies. Nonfood biomass instead of petroleum, coal or controversial food feedstocks can produce cheaper, safer, faster and environmentally friendlier products and services. For instance, advanced biofuels, bioplastics, biooil, sugars, biofertilizers, proteins and foods to cite a few.
Advantageously, this project would use a promising nonfood biomass feedstock adapted through millions of years for growing in extreme conditions close to megacities worldwide. Arid biomass requires far less common inputs like water, energy, machinery, pest control, downstream and upstream processing than microalgae and traditional crops. The challenge is to create sustainable processes for transforming arid biomass into sustainable products and services responsibly.
The PhD project aims at studying biotechnological and chemical engineering strategies to create novel sustainable processes transforming arid biomass into wealth while helping people and the environment in a more responsible way. Products and services could be used in energy, feed and food production, agriculture and farming.
An understanding of bioprocessing, bio/chemical process engineering, biomass valorisation are foundations for creating viable strategies. Strong laboratory skills in the aforementioned subjects are essential. Basic design and expression of recombinant enzymes and/or molecular cloning skills are desirable, not essential, but to be learned and applied along with the project.
Applicants must have achieved or be expected to achieve a 1st class or 2:1 honours degree or equivalent in a related discipline in Chemical/Biochemical/Environmental Engineering, Biotechnology or equivalent or have relevant industrial experience…
Converting waste into bioenergy is a hot topic around the world. Several are the reasons for doing this, ranging from adding value to waste, reducing carbon footprint and air pollutants while producing valuable products like fertilisers and more.
New research unveils the evaluation of the performance on food waste conversion into bioenergy in a decentralised facility, where biological treatment by natural microbes converts food waste into biomass, a process known as anaerobic digestion.
The evaluation not only considers energy efficiency of the entire process but also the removal of organic matter and its conversion into valuable products, that otherwise would end up in the environment.
Results demonstrated that small scale digestion units are technical suitable for biogas production at acceptable level to consider it valuable.
The system could produce its own electricity at an efficiency of up to 0.95% when the yield of methane is 360 litres per kilogram of volatile solids in the food waste fed to the digester, representing a removal of 93% of these solids in the feed stream.
Process stability is normally a problem but in this case high process stability increased thanks to the innovative addiction of an auxiliary storage system.
There were some operation conditions that could compromise the good use of energy to heat up equipment in various stages, the researchers reported*.
*Download from ELSEVIER (last day: 23 Oct 2020). González, R. et al. (2020) ‘Performance evaluation of a small-scale digester for achieving decentralised management of waste’, Waste Management, 118, pp. 99–109. doi: https://doi.org/10.1016/j.wasman.2020.08.020.
The raising number of calls to become an entrepreneur sounds like welcoming messages to wonderlands. In most of the cases the message is aimed at the youth. And, like in any group of youths, it would sound easy to push university students to choose an entrepreneurial career, but do they have what it takes?
Is it the student’s proactive personality or the university support environment that affects their entrepreneurial intentions?
We show a new way to save our planet from global warming. To tackle this problem, We focus on a natural approach to capture the smoky carbon dioxide released by industrial plants and make chalk out of it, using a process that could be accelerated up to one million times and adds value to CO2 in a socially responsible way. You can find the whole article in page 9 of Asia Research News.