The future of the human race relies, in part, on water sustainability. Malthusian theorists predict water will become the most valuable commodity traded and accessible to only the highest bidders; while this might sound farfetched and dystopian, consider that freshwater scarcity affects approximately 4 billion people globally, according to the United Nations World Water Development Report 2019.
A prevalent misconception is that water shortage only truly affects resource-poor parts of the world. When you think of a water shortage in the UK, for example, you picture hosepipe bans affecting the growth of people’s lawns and flowerbeds. While this might be annoying for some, it certainly doesn’t compare with other environmental issues such as the amount of plastic in our oceans and the rising temperature of the planet.
In March 2019, water scarcity hit UK headlines when Sir James Bevan, chief executive of the Environment Agency, warned that England will run short within 25 years. There are similar estimates elsewhere in the world; according to The Guardian, 50% of the world will be living in water-stressed areas by 2025.
Uwe Bornscheueris biotechnologist and holds the chair for Biotechnology and Enzyme Catalysis at the University of Greifswald in northeastern Germany. Gert Weber, a structural biologist and biochemist, is affiliated with the Helmholtz-Zentrum-Berlin, Bessy II Synchrotron. They have teamed upto improve the catalytic properties of plastic-degrading enzymes for use in sustainable recycling – iteratively engineering proteins on the basis of molecular structure.
We’ve long celebrated plastics for their strength and simple manufacture, but their high production rates and uncontrolled disposal have turned them into a global environmental burden. The amount of industrially-produced plastics increases year-on-year, and their production depends on an ever-declining resource – fossil fuels. For us to limit environmental pollution and prepare for the reduction in crude oil, we need to introduce more sustainable (and biodegradable) polymers into the supply chain and stop wasting our existing oil-based plastics – ensuring that they enter a circular and sustainable economy.
The agriculture industry is fundamental to securing a sustainable future for humanity. Few other sectors have such enormous potential to benefit the planet in the face of population increase, resource depletion, and climate change.
For some observers, the focus on agriculture pertains to the simple concern of feeding 9.8 billion people from a static (or worse: declining) arable land base. For others, the focus lies more on the quality of our soils, watercourses and ecosystems, and their ability to support life or sequester carbon.
Regardless, the basic mathematical realities of our finite land mass and the competing demands upon it – rapidly changing weather patterns and increasing rates of consumption – lay bare a stark challenge: producing more food from less land, with less waste, lower inputs, and lower environmental burden. According to estimates, we need to produce as much food in the next four decades as we have produced, so far, in the entire history of agriculture – some 10,000 years.
The way that we produce energy needs to change. If we want to tackle global climate change head-on with sustainable energy solutions, then we need a fundamental shift in the way that we create, store, and distribute energy. Ultimately, this means a breadth of changes also occurring in our homes, which could prove challenging. As is often the case with new technologies, the disruption they cause to people’s lives creates pushback that slows their diffusion into general use; people aren’t predisposed to compromise on comfort or convenience.
That’s where efforts such as the Nottingham Trent Basin project come in – providing sustainable solutions that integrate seamlessly with people’s existing routines. The Nottingham Trent Basin project, for example, aims to transform electricity generation in homes by producing it communally.
At times, it may appear to some that innovative technologies and products tend to spring up out of the blue – that John or Jane Doe woke up one morning and engineered a working product by nightfall. In rare cases, this is (more or less) the case. However, more often than not the truth is that the innovative technologies we see in the news were developed rather more meticulously – the result of continuous iterative processes that significantly transform a product from its original concept. ‘nowlight’, a renewable energy solution produced by company Deciwatt, is one such example – generating instant on-demand power independent of the weather.
Glastonbury Festival 2017. Image credit: Luke Taylor
As a company spanning engineering and the arts, both the very nature of energy and its functional application have always been central to what we do. From dramatic show moments that trigger a simultaneous upsurge of emotion amongst thousands of people, to 60-foot flames erupting with a thunderous shockwave – the harnessing and visualization of energy in its most visceral forms are the essence of the experiences we create.
When we hear about food waste, we tend to think of wastage at the consumer side of things – the bag of half-eaten salad mix you guiltily throw out every week, the enormous meal at a restaurant you couldn’t finish, or your parents sternly reminding you of the ‘starving children around the world’ as you pick at your peas.
Food loss and wastage, however, is a pervasive issue at all stages along the food supply chain from production and storage through to transport and consumption.
The Food and Agriculture Organization of the United Nations (FAO) claims that one-third of food produced for human consumption is lost or wasted globally – equal to around 1.3 billion tonnes annually.
While consumer-side efforts have been launched in recent years to combat this issue (such as ‘ugly’ fruit and vegetable campaigns, and apps that let consumers buy cheap food from cafes before it gets binned), there’s an opportunity to combat the issue on the production-side by harnessing AI and machine learning (ML) technology.
Our oceans are dirty. AI-powered robot microscopes may save them.
In five years, small autonomous AI microscopes, networked in the cloud and deployed around the world, will continually monitor the condition of the natural resource most critical to our survival: water.