It’s Friday, and the final stage of our IChemE Global Awards winners round-up. We hope you’ve enjoyed the posts this week, and learnt a little more about each of our winners.
Today we are shining a light on the research superstars of the Awards. IChemE has always maintained strong ties with the academic community, supporting the host of ChemEngDayUK each year and accrediting courses. We also do proactive work with our UK Research Committee, who last night launched ten chemical engineering research case studies that have had a significant impact on the UK economy. Read all about the research event, held in Parliament, here.
So, on to the winners and the final three IChemE Global Awards videos, produced in association with Morgan Sindall. All these winners have demonstrated fantastic research capability, but most importantly their studies have a real-world application that can really make a difference.
Enjoy these final three videos, and season’s greetings to all our members worldwide.
Last month the IChemE Global Awards 2016 were held in Manchester, UK, in one of the biggest celebrations of chemical engineering achievement worldwide. Our judges had a difficult task narrowing down 16 winners from 120 amazing finalists.
The ceremony was held at the Principal Hotel and welcomed over 400 guests from around the world to recognise and celebrate chemical engineering success stories.
For many, success doesn’t end after collecting a trophy, but marks the starting point on a journey to excellence. An IChemE Award can take you to some unexpected places, make commercialisation easier, help to develop your team or grow your portfolio. You could even get a letter from the US President.
So every day this week we’ll be dedicating special blog posts to the 2016 Award winners and their innovative, fascinating, problem-solving projects. With the fantastic support of Morgan Sindall we have produced a video for every one – enjoy!
To help you stay up-to-date with the latest achievements from the chemical engineering research community here is our monthly instalment with some of the latest stories.
September’s five stories of amazing chemical engineering research and innovation are:
The Popeye effect – powered by spinach
Popeye was right; we can be powered by spinach! Researchers from the Technion-Israel Institute of Technology have developed a bio-photo-electro-chemical (BPEC) cell that produces electricity and hydrogen from water using sunlight, using a simple membrane extract from spinach leaves. The article, publish in the journal Nature Communications, demonstrates the unique combination of a man-made BPEC cell and plant membranes, which absorb sunlight and convert it into a flow of electrons highly efficiently. The team hope that this paves the way for the development of new technologies for the creation of clean fuels from renewable sources. The raw material of the device is water, and its products are electric current, hydrogen and oxygen.
On 24 May 2016 at the Edinburgh International Conference Centre, Professor Jonathan Seville was inaugurated as IChemE President for 2016-17. The Executive Dean of Engineering at University of Surrey delivered his Presidential Address on the subject of relevance. Jonathan challenged us all to think: how will the Institution and the profession stay relevant in a world that is rapidly changing?
Since the end of ChemEng365 our ChemEngBlog has become a little quiet. To make sure you stay up-to-date with the latest achievements from the chemical engineering research community we will be providing you with monthly updates on some of the latest stories.
So here are five stories of amazing chemical engineering research and innovation:
Seven chemical separations to change the world
David Sholl and Ryan Lively, chemical and biomolecular engineers, from the Georgia Institute of Technology, US, highlighted seven chemical separation processes that, if improved, would reap great global benefits. The list they have drawn up is not exhaustive (we are sure there are more we could add!) but includes; hydrocarbons from crude oil, uranium from seawater, alkenes from alkanes, greenhouse gases from dilute emissions, rare-earth metals from ores, benzene derivatives from each other, and trace contaminants from water.
IChemE’s Special Interest Groups (SIGs) are an essential way for our members to share knowledge and collaborate on initiatives, which are of significance to their sector.
Today is World Water Day, and our Water SIG is a hugely important part of providing expert advice and consultation to the innovations that could change our world. Water is essential to life, it must be sustainable or we cannot survive. Chemical engineers are an important part of making sure water provision is sufficient, clean, economical, and environmentally-friendly.
Chris Short, Chair of the IChemE Water SIG, explores in more detail the current challenges for the water sector in today’s blog post. Read on to hear his thoughts, and feel free to join the conversation on Twitter using #WorldWaterDay or by leaving a comment below:
Name: Chris Short Job: Consultant and Chartered Chemical Engineer Company: Chris Short Water Quality (previously Yorkshire Water) Special Interest Group: Water, Chairman
Today is World Water Day, and I’ll be attending a conference in Leeds, UK, on Innovations in Wastewater Treatment. The focus will be on the recovery of value from wastewater and I expect to hear how leading-edge technologies are performing and what new processes are being evaluated by researchers.
The first is energy efficiency, a central part of ensuring we maximise the energy we produce to reduce both waste and harmful emissions.
The need to improve energy efficiency is perhaps one of the easiest topics to get a consensus on, and it will form an imperative part of an effective agreement at the Paris climate talks over the next week.
The numbers speak for themselves. The 2012 Global Energy Assessment revealed that 66 per cent of the energy produced today is wasted. For the chemical process industries and the chemical engineering sector, the implications of this statistic are huge.
This week saw the start of the 21st Conference of Parties, COP21. More than 190 countries and 150 global leaders have gathered in Paris, France, to discuss a new global agreement on climate change.
The United Nations (UN) event will host around 40,000 people and runs right through until the end of next week (11 December).
The future of the natural world, and the animals and plant life that call it home, depends on the outcome of this conference. If we don’t limit global warming to 2 degrees, the consequences will be catastrophic.
Whilst we cannot accurately predict the scale of any potential impacts now, what we do know for certain is that climate change is happening, and we have a responsibility to reduce any further damage.
Chemical engineers are part of the solution, and the IChemE Energy Centre has identified five priority areas where technology can be deployed now to help mitigate climate change.
Most people, in the UK at least, will be familiar with the fairy tale of ‘Goldilocks and the Three Bears‘, where Goldilocks, a young girl, seeks out products that are not too strong and not too weak – aiming for ones that are ‘just right’.
This is the aim of chemical engineers who work on the development and delivery of consumer products. There is a strong focus on achieving a consistent outcome that the customer deems to be ‘just right’.
David described how science and engineering are applied to transform household detergents into higher value specialty products. He went on to explain how improved consumer satisfaction is being delivered by creating a washing product that leaves an appealing fragrance on freshly laundered clothes.
David and his team achieved this by creating a product that deposits perfume micro-capsules onto fabric during the wash cycle. The capsules subsequently fracture and release a pleasing odour in controlled doses.
For most girls, their first menstrual cycle is awkward and embarrassing, but seen as a natural transition towards womanhood. However, in Ethiopia it can be an incredibly taboo subject. As a consequence, misinformation, negative beliefs and myths hold sway.
In the rural Tigray region of Ethiopia, where chemical engineer Freweini Mebrahtu grew up, young girls found out about their menstrual cycle through overheard rumour and myth; often leaving them shocked, confused and afraid.
In the UK this week, it is Parkinson’s Awareness Week. The aim is to raise awareness of the disease by doing a good deed and tweeting about it using #upyourfriendly.
We can all get involved; just by being nice to the people we meet. You can make new friends and maybe someone’s life a little easier without even knowing it. Check out the campaign to learn more.
With this strategy in mind, I thought I’d raise awareness of the work of some chemical engineers who are definitely ‘up-ing their friendly’ by working behind the scenes to help combat the symptoms of this debilitating disease.
Parkinson’s disease affects one in every 500 people. That’s an estimated 127,000 people in the UK – or around 8.5 million globally.
It is a progressive neurological condition that affects nerve cells in the brain, causing them to die. This results in lower dopamine levels in the body with serious implications for mobility and emotional behaviour.
We all want to make a good first impression, but when we feel anxious our body responds by sweating and this can result in an unappealing body odour.
When we want to make the right impact at an interview or on a date, we need a little help to make sure we are smelling fresh.
So fear not. There’s now a perfume that improves its performance the more we sweat.
Researchers at the Queen’s University Ionic Liquid Laboratories (QUILL) Research Centre in Belfast have developed a unique perfume. It releases its aroma the more it comes into contact with moisture. So the more you sweat, the better you smell!
As one industry cuts back on jobs due to the recession, another blooms. Last year $8.5 billion was spent in US nail bars. That’s a $1 billion increase since 2012.
So why are more people visiting nail bars now, than when times weren’t so tight and we had more cash in our pockets?
One explanation is the ‘lipstick effect’. When our budgets are squeezed, rather than losing the taste to splurge we simply trade large extravagancies for cheaper luxuries to cheer ourselves up. Cue the nail bar, manicures and chemical engineering.
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.
The team, led by Dr David Hazafy, have developed a strip of plastic – containing ‘smart’ ink – which turns colourless from an initial blue colour to indicate a high exposure of ultraviolet light from the sun. This should prompt the user to move into the shade before burning, reducing the risk of skin cancer.
We have been attracted to gold for millennia both for its beauty and its value.
Gold is considered so attractive because it does not corrode or tarnish. It’s also very ductile. These properties have led to gold being used in works of art and treasures of great historical and cultural significance.
Gold has inspired great art, but what about great chemistry and chemical engineering?
During the evening Graham shared many interesting insights into UK catalysis research. Catalysis is at the core of the UK economy and contributes over UK £50 billion annually. It is central to the wellbeing of society and is involved in some way in 80 per cent of all manufactured goods.
Graham then told me about his work with gold catalysts. With his team, he has discovered that gold has the potential to improve health, clean up the environment and save lives.
Spinal cord injuries are extremely serious and the road to recovery is often a long one.
Two million people worldwide are affected by spinal cord problems that result in the loss of motor and sensory function below the point of injury, which can be devastating.
I’ve blogged previously about a team from Stanford University, which is working reduce the trauma of injections and improve the ‘healing help for spinal injuries‘. It’s an area where chemical engineers are making a difference. Here’s another great example.
The classic example of an animal engineer is the beaver, behaving like a civil engineer and building dams. This made me curious to find animals that act like chemical engineers and here are my ten favourite examples:
The Students’ Union bar sometimes proves a more attractive option than completing that tricky course work and I have often wondered if extra-curricular high jinks might be the reason behind some of the dazed expressions that greeted me during the dreaded 9 o’clock Monday morning lecture.
But given that brewing is one of the earliest examples of chemical process engineering, maybe we shouldn’t be too hard on those who enjoy the end product. Nonetheless, beer like many other chemically engineered products is best enjoyed in moderation!
Chemical engineers are still working to improve the brewing process and today I am highlighting the work of students from Newcastle University, UK and the University of Sheffield, UK, who have shown great entrepreneurial spirit and brewed their own beer.
Stu Brew, is a sustainable microbrewery managed by students for students. It was set up in partnership with the School of Chemical Engineering and Advanced Materials at Newcastle University. The microbrewery acts as a research unit for sustainable brewery design, with some students involved as part of their academic studies.
Fluorspar, or fluorite, is the mineral form of calcium fluoride and the key raw material in the production of hydrofluoric acid, a significant commodity chemical with a wide rage of uses. South Africa is a producer of acid grade-fluorspar, but around 95 per cent of its production is exported.
However, heavy reliance on income from the export of low value materials can hamper a nation’s economic prospects and render it vulnerable to global price fluctuations.
An initiative from the Southern African Department of Trade and Industry aims to address this challenge via a two-pronged approach. First, by developing cutting-edge technology in fluorochemicals and also by accelerating the skills development in fluorine engineering through world class research.
Chemical engineers working in the Department of Chemical Engineering at University of Pretoria, South Africa, have focused their work on the production of novel fluoro-materials, development of dry-fluorination reactions and modification of polymer properties by reactive processing.
When I read through scientific journals, the articles that grab my attention aren’t always the ones describing the most novel ideas. Sometimes it’s enough to just make something easier. That’s why today’s story appealed to me.
Many everyday products including medicines, beauty products and foodstuffs contain emulsions: liquids with tiny droplets of another liquid suspended within them (see my blog ‘food, glorious, food…emulsions‘). A classic example that we all can create at home is vinaigrette (salad dressing), which is an emulsion of oil and vinegar.
Vinaigrette is a straightforward two component mixture. However, things get far more interesting when you suspend a liquid within a liquid, within a liquid. These complex emulsions (in this case a double emulsion) can be tailored for use in specific applications.
Marks’s Nanopatch™ idea was to offer a needle-free method of drug delivery that could be widely used and increase vaccine efficacy.
In 2011 UniQuest, the University of Queensland’s commercialisation company, helped Mark found Vaxxas to advance the possibility of Nanopatch™ becoming a clinically-proven product.
Today, Vaxxas and Mark are getting closer to making that idea a reality by raising £12.7 million of funding for a series of clinical programs and the development of a pipeline of new vaccine products for major diseases.
Two biotechnology companies are joining forces to build a world-first renewable chemical manufacturing plant in Nusajaya, Iskandar, Malaysia.
The plant is said to be the first-of-its-kind; a bio-based plant that will produce 30 million pounds of diacids, including dodecanedioic acid (DDDA), each year.
Verdezyne, an American industrial biotechnology company that works to develop technologies to create a positive impact on the environment, has partnered with Bio-XCell, a Malaysian biotechnology park and ecosystem facility aiming to position Malaysia as a world leading biotech location.
So, through their partnership, Verdyzyne has leased 6.9 acres of land at the biotechnology park and secured a loan from Bio-XCell of RM 250 million (or UK £49 million) to build their plant.
I have always been proud of the international chemical engineering community that IChemE represents. So I thought I would make a point to celebrate Chinese New Year on my blog.
Today, 19 February 2015, is the start of Chinese New Year – the year of the goat. However, the Chinese ‘New Year’ is only described as such in the West; in China, it is the Spring Festival and an official public holiday.
Traditionally, today is an important time of year for families to spend together.So I thought I would bring our chemical engineering family a little closer together by sharing a good news story from some of our colleagues in China.
Both the faculty members and senior engineering students involved come from a variety of disciplines (mechanical, electrical, biomedical and chemical) and are collaborating with the Tampa based biotechnology company to build a fully functioning prototype of a completed device over the next few months.
I would have to say that I am a bit of a cynic when it comes to Valentine’s Day, whilst it is important that we show our love for those in our lives, I wonder if we need a set day of the year to do so.
However, in view of the occasion, today I thought I’d go down a different route.
The focal point of Valentine’s Day is celebrating the human heart. And whilst I (and science) would dispute the fact that our emotions develop here rather than in the brain, the heart is symbolic on this day of the year.
Our heart however is a vital organ and when it goes wrong, the consequences can be drastic.
Chemical engineers have also been involved in this struggle, with a particular focus on the materials and flow involved in understanding how blood circulates through the heart.
And so today, I am using today’s blog to highlight the work of a few chemical engineers who are focused on making our hearts beat.
Loading a dishwasher is one of those daily household chores that usually doesn’t involve too much thought; you pack the dishwasher with dirty crockery, remember to use detergent and then press the on button.
The technique of Positron Emission Particle Tracking, developed at the University of Birmingham, was used to track and analyse the flow of water in the dishwasher through non-invasive 3D spatial detection of radioactively labelled particles i.e. tracers.
If you are an early adopter of technology, you may be aware of a new generation of televisions slowly entering the market called OLED (Organic Light Emitting Diode) TVs.
They aren’t cheap. The few production models available cost between £3,000-£7,000. But they have aspirations of being just 4 mm thick, are able to curve, 3D, have great colour, picture resolution and so on.
Interestingly, OLED’s are made from organic semiconductors, along with other development products such as organic solar cells and organic electronic products including smart labels and wearable electronics.
In Europe, there was a similar anti-car theme, when, around the same time, the Mayor of Paris, Anne Hidalgo, announced she wanted to ban diesel cars and the pollution they bring from the streets of the French capital.
The Mayor also wanted to limit traffic in pollution hotspots, by only allowing ultra-low emission vehicles within them. In addition, new speed limits were mooted of 18 mph (30 km/h).
These proposals would be a major challenge in France with around 80 per cent of the cars on the country’s roads being diesel-powered.
From next month, France will start applying stickers to vehicles emitting the most pollution; diesel cars more than 13 years old will get a red sticker.
It is clear there is a mini backlash against cars at present, but where does all this leave current transport policy and how can engineers influence it?