The number of people who are diagnosed with diabetes around the world is approaching 400 million.
In the UK, there are 3.2 million people diagnosed with the condition and an estimated 630,000 people have it, but don’t know it. The cost of diabetes to the NHS is estimated to be about £10 billion a year overall, with £7.7 billion related to health complications and £2.1 billion spent on treatments.
This is a huge amount of money, and with the World Health Organisation (WHO) predicting a 55 per cent increase by 2035 in people living with diabetes worldwide, the cost is only going to increase and put a strain on the already limited resources.
PolyPhotonix, a bio-photonic and OLED (organic light-emitting diode) research company headed up by Richard Kirk, has developed an innovative product that can save the NHS up to £1 billion a year by preventing and treating diabetes retinopathy and age related macular degeneration.
A team of chemical engineering researchers have discovered a breakthrough in catalytic converter research through perseverance. This research will help manufactures of cars reduce the need for the use of expensive platinum in catalytic converters.
Eric Peterson, a graduate student in Nanoscience and Microsystems Engineering at the University of New Mexico, began this discovery when he refused to accept that the measurements he recorded using x-ray absorption spectroscopy (XAS) were incorrect.
Professor of chemical and biological engineering, Abhaya Datye, worked with Eric on this project to improve our ability to measure the sizes of nanoparticles, focusing on those smaller than one nanometre (one billionth of a metre).
In my daily blog, I’ve talked frequently about the need for chemical engineers to operate in multi-disciplinary teams. Today’s blog – about an innovation in 3-D microfluidic systems – illustrates this point once again.
The idea for a new type of 3-D microfluidic system, developed by USC Viterbi School of Engineering, has great similarities with a toy box favourite – Lego, which as boys and girls know, is a fun and flexible system that can be used to build (and deconstruct) just about anything.
Some of you will be aware of the ‘nexus’ approach to the grand chemical engineering challenges. Although, we often look at energy, food, water and health in isolation, in fact many of them should be considered alongside each other.
One of these important relationships is energy and water.
Of course if you’ve got energy and water, the debate is often about cost and service. If you’ve got neither, then it’s a completely different debate where capital, skills and infrastructure become the priority topics.
Sewer management is a difficult business; it depends on a careful balance of chemical and civil engineering.
Sewer infrastructure maintenance is a costly business, e.g. in America the federal government has required cities to invest more than $15 billion in new pipes since 2007.
The concrete foundations of sewers are often corroded due to additives used in the processing of drinking water. In Australia some concrete pipes are being corroded by up to 90 per cent.
One group who knows this well are the Sewer Corrosion and Odour Research (SCORe) Team at the Advance Water Management Centre at the University of Queensland, Australia, who recently published an article in the journal Science outlining a method to reduce sewer corrosion.
Recently I wrote about twins who were creating a better mechanism to release cancer-fighting drugs and about researchers using epigenetics to identify the best treatments for cancers.
Now I have more good news about chemical engineers working to combat lung cancer.
Researchers at the Koch Institute for Integrative Cancer Research at MIT (Massachusetts Institute of Technology) have successfully used RNA therapies to shrink and slow the growth of lung cancer tumours.
When you think of data storage, I think it would be safe to assume that water is not the first thing that comes to mind. Rather it is hardware and electronic components that we associate with storing our information, such as saving documents on a USB pen drive or computer hard-drives.
The team, led by Sharon Glotzer, the Stuart W. Churchill Professor of Chemical Engineering at the University of Michigan, have discovered a new method for storing data in microscopic particles suspended in a solution, also referred to as “wet computing”.
Have you noticed how often nature inspires technological advancements? It’s something that chemical engineers are very adept at and have made a series of recent discoveries that have great potential.
Research by Newcastle University in the UK found that nickel nanoparticles on the exoskeletons of Sea Urchin larvae gave them the ability to convert CO2 to calcium carbonate. The finding has the potential to help mitigate climate change.
When most people think of aerosols they think of spray cans.
Coverage by the media in the 1980s and 1990s of aerosols damaging the ozone layer drove this thinking. However, it is just one type of aerosol or “atmospheric particulate”, cholorofluorocarbons (CFCs), that was causing this damage.
As we advance our knowledge of renewable energies is it important that we are able to reduce the cost of producing them, to make them affordable and widely available.
In an earlier blog I discussed charities working to alleviate energy poverty by building a new economy around solar power.
Researchers from the University of Sheffield’s Department of Chemical and Biological Engineering and Department of Physics and Astronomy have developed a method to produce spray-on perovskite solar cells.
This is very exciting as it offers a way of developing a low-cost method of producing solar energy cells.
Globalisation has created opportunities for many industries, but the growth of some fast moving consumer goods (FMCG) – especially fresh foods – continue to be limited by their relatively short shelf lives.
For some countries, like Australia, it places an unwelcome cap on their exporting potential and economic growth.
For nations with burgeoning populations, especially in South East Asia, the scope and volume of ‘fresh’ food imports can be constrained and place additional burdens on ‘home-grown’ food supplies.
75 per cent of world fish stocks are fully-exploited, over-exploited or depleted.
Consumers and farmers are turning to farmed fish as a source of food, with fish farms aiming to produce nearly two thirds of the global fish supply by 2030.
However, 81 per cent of the fish caught in the wild are currently used to feed farmed fish, making fish farming just as unsustainable.
Eating fish offers huge health benefits; they provide neurodevelopment benefits to women of child rearing age and have been shown to reduce the risk of mortality from coronary heart disease. We need to find a way of farming fish sustainably to continue receiving these health benefits.
Chemical engineers are investigating various avenues to make the aquaculture industry more sustainable and reduce the use of wild fish in farmed fish feed.
One of the biggest frustrations that many scientists and engineers face, both in academia and industry, is short-termism. For issues like sustainability it’s problematic.
Investors and politicians can be nervous about taking the long-term view. Business likes quick wins; figures it can report quarterly and give annual performance targets.
By contrast, the journey to sustainability is often gradual, steady and long-term. For many of us it is a continual process of improvement – a step-by-step process of finding ways to use less energy, reduce waste and generally improve.
There’s always lots of news and debate about how vehicles of the future will be powered, but rarely is there a conversation about what they might be made from.
Car production has become a lot more sustainable in recent years, with specific legislation introduced in many countries for manufacturers. Estimates suggest up to 90 per cent of a car leaving the production line today could be recycled.
But what if some of those materials used to make cars are also the product of inventive recycling?
Walk up to any typical man or woman in the street and ask them where their energy comes from to power their homes, cook their food, keep the cold out and fuel their cars and you’ll probably get a very long list of answers.
If you posed the question, what power source has more energy in it than all the world’s oil, coal and gas put together, only a few are likely to get the right answer.
In fact the answer is gas hydrates – the lesser known hydrocarbon. Otherwise known as fire ice and more loosely termed methane hydrate, the gas presents as ice crystals with natural methane gas (and other gases) locked inside.
How inventive are chemical engineers and how could you measure their inventiveness? It’s a bit of a rhetorical question and one that probably doesn’t need an answer, but it did cross my mind the other day when I received an email from IChemE promoting a Webinar about microalga Dunaliella by the University of Greenwich in the UK.
The University are leading a €10m international project, called the ‘D-Factory,’ to build a biorefinery to develop the microalga Dunaliella as a sustainable raw material and turn every part of the alga into something useful.
In fact, they are looking at potential products including food, pharmaceuticals, plastic and fuel. This is unlikely to be a surprise to anyone who is part of the chemical engineering ‘family’, but probably something relatively unknown in the wider world.
There are lots of industries where protective clothing is a necessity. Although technology makes a contribution and advancements have been made, such Kevlar, by and large, some of the protection and the technology used seems to be stuck in a bygone era.
Chain mail is still used as protection in meat processing factories. Many boots still have metal toe caps. Plastic hard hats have been around for over 60 years. Surgical gloves are made from simple polymers… or are they?
This weekend is the Austrian Formula One Grand Prix. If you’re a fan of the sport you’ll know that tyres (and their lack of grip), drivers (what’s more important – the car or the driver) and aerodynamics (who’s got the most downforce) often dominate the pre-race conversation.
They may not call themselves ‘chemical engineers’, but ‘process engineers’, ‘product engineers’, ‘process technologists’ [and a multitude of other job descriptions] are busily working away in the food industry to make the brands we know and love.
Producing tasty, safe, consistent, attractive, stable and value-for-money foods on a large scale is a remarkable achievement. Without those product values and others, glitzy marketing will always fail.
I’m sure, like me, you meet and work with a great deal of people. But time never stands still and rarely do people. However, writing my blog over these first few weeks has made me realise the power of social media to connect and re-connect with people.
It’s also a chance to find out how organisations like IChemE have influenced the life and careers of its members, and many other people we try to help.
Have you ever considered how much technology contributes to sporting success? Is it possible to succeed without the latest piece of kit to boost your talent? Are there any sports which don’t benefit from technology in some shape or form? Probably not.
I remember a few years ago that Speedo’s swimsuits were banned for the London 2012 Olympics. The polyurethane bodysuits that contributed to an astonishing number of swimming world records over the previous 18 months.
Do you find it hard to explain what you do and why it’s important? It’s a common problem and even the best communicators struggle to convey the science, complexity, scale and even the products we make – industrial or for consumers.
However, it was great to see a project this week in Malaysia where students from the Universiti Teknologi Malaysia took a mobile mini biodiesel reactor into the streets to help the general public’s understanding of biodiesel. It’s the type of initiative that fits perfectly with the ChemEng365 campaign.
Most of my blog entries are about celebrating the achievements of chemical engineers now. But 6 June 2014 marks the 70th anniversary of the D-Day landings, when British, US and Canadian forces invaded the coast of Northern France in Normandy. It was the biggest amphibious assault in military history.
It was also a point in history when chemical engineers made a major contribution, which could easily be forgotten, that we should remember with pride.
The landings were the first stage of Operation Overlord – the invasion of Nazi-occupied Europe – and were intended to bring World War Two to an end.
An international collaboration of researchers in Germany, Netherlands and the US have used chemical engineering principles to track single molecules inside living cells with carbon nanotubes.
Chemical engineers from Rice University and biophysicists from Georg-August Universität Göttingen and VU University Amsterdam found that cells stir their interiors using the same motor proteins that serve in muscle contraction. The study, which sheds new light on biological transport mechanisms in cells, was published in Science.
Some estimates suggest around a billion scrap tyres are produced every year.
Many countries have legislation controlling their disposal and there are several ways they can be re-cycled, such as for mats and ‘soft’ protective flooring in children’s play grounds. They even have potential as a source of energy.
But they remain problematic due to their sheer volume.