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The oil and gas industry is simultaneously confronting the dual mega-trends of energy transition and digital transformation. Royal Dutch Shell CTO Yuri Sebregts outlines the critical role his technology and R&D teams are playing in supporting those new aims.
Leading a globally distributed team of more than 3,000, Royal Dutch Shell CTO Yuri Sebregts is responsible for technological innovation at all levels within the oil and gas giant — not only digitalization but innovation in chemistry and engineering.
Currently, Sebregts and his organization are intensely focused on the two mega-trends of energy transition and digitalization. “Those are the two headers that catch all the important technology work that’s going on,” he says.
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Royal Dutch Shell CTO Yuri Sebregts |
Sebregts claims that the biggest difficulty with the transition to zero-carbon is changing the supply and demand chains simultaneously. “If you are a very large energy company you are therefore tied to that reality of how the current energy system works. The challenge is that Shell and its customers have to change at the same time. Can we change what we supply while the customer changes what they consume?”
For Sebregts, the responsibility as CTO involves coming up with all the technological elements that can make that transition successfully.
Broadly speaking, that effort can be grouped in two areas of focus, according to Sebregts: technologies and approaches that make it easier for customers to make the switch to decarbonize their lives and their business operations, and the creation by Shell of new low-carbon processes for producing energy, materials and chemicals “that are still competitive for investors.”
That offers a lot of scope for action. And among Shell’s sustainability initiatives are the installation of hydrogen fuel pumps across Germany and the UK, investment in the production of low-carbon biofuels such as sugar-cane ethanol, and deployment of carbon capture and storage solutions (CCS). Its large-scale CCS project in Canada called Quest (part of a joint venture with the governments of Canada and Alberta) has captured 5 million tonnes of CO2 to date.
How technology is supporting the energy transition
Although many believe the energy giant must go much further — and faster — it’s certainly aiming high. “We’re going to be an important part of that transition [to net-zero carbon]. It’s our ambition to offer the alternative energy that people need and help each sector change the way energy is consumed in time to achieve the Paris Agreement targets and the scenario where it is possible to stay below a 2 degrees Celsius temperature rise. But it is a challenge.”
At a more immediate level, an area the CTO is currently exploring is improving the energy efficiency of its data centers. Data centers are a large and growing consumer of energy — with some analysts estimating they contribute to 1% of global electricity use.
Shell is now exploring alternative applications for its lubricants and fluids (which are currently used in automobiles, industrial settings and wind turbines) to enhance data center cooling.
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Shell employee working at one of its lubricant plants |
Explosion-proof iPads are used when inspecting sites, such as Shell’s shale gas well pad in the Permian Basin
One area of efficiency which has greatly improved — and generated huge savings — under his tenure is access to data in the field. This has come in the form of high-tech solutions, such as a new generation of autonomous sea-floor vehicles, which scan underwater oil and gas pipelines and feed the resulting footage to AI systems to detect areas which need repair before a leak occurs.
Drone and satellite imagery is also used in offshore operations to ensure against leaks. “This type of assessment simply wasn’t possible before AI and machine learning,” Sebregts says. “Previously it would all have had to be done manually, with limits of how much camera footage people could be expected to inspect accurately.”
More low-tech solutions are also proving to have similarly transformative results for field operatives. Using tablet devices in a chemical plant or in a gas processing plant can be risky, as even their small charges can be a sources of ignition when there is a leak. To address that, Shell has implemented thousands of “explosion-proof cases” for tablets, allowing Shell’s employees to access digital information such as equipment drawings, design data, information on repairs and aerial imagery, while moving around sites.
It gives operators “an overview of any facility available at their fingertips,” Sebregts adds. “And it improves efficiency as they don’t have to return to the office to access such documents when inspecting or maintaining a piece of equipment.”
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