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Hydrogen’s potential in the net-zero transition

Hydrogen’s potential in the net-zero transition

Hydrogen as a climate solution is generating a lot of excitement right now. Approximately $10 billion worth of hydrogen projects are being announced each month, based on activity over the past six months. Policy packages such as the recent Inflation Reduction Act in the United States and the Green Deal Industrial Plan in Europe support hydrogen production and use. According to McKinsey research, demand is projected to grow four- to sixfold by 2050. Hydrogen has the potential to cut annual global emission2050s by up to 20 percent by 2050.

Today, most hydrogen is produced with fossil fuels. This type is commonly known as grey hydrogen, which is used mostly for oil and gas refining and ammonia production as an input to fertilizer. To maximize hydrogen’s potential as a decarbonization tool, clean hydrogen production must be scaled up. One variety of clean hydrogen is known as green hydrogen, which can be made with renewables instead of fossil fuels. Another variety, often called blue hydrogen, can be produced with fossil fuels combined with measures to significantly lower emissions, such as carbon capture, utilization, and storage. Clean hydrogen has the potential to decarbonize industries including aviation, fertilizer, long-haul trucking, maritime shipping, refining, and steel.

Total planned production for clean hydrogen by 2030 stands at 38 million metric tons annually—a figure that has more than quadrupled since 2020—but there is a long way to go to meet future demand. According to McKinsey analysis, demand for clean hydrogen could grow to between 400 million and 600 million metric tons a year by 2050.

To scale clean hydrogen, three things must happen. First, production costs need to come down so that hydrogen can compete on price with other fuels. One way to keep costs down is by producing hydrogen in locations with abundant, cheaper renewable energy—where the wind blows or the sun shines. While renewables development has accelerated in recent years, a lack of available land could become an issue for the deployment of renewables and could limit location options for green-hydrogen producers. Constructing plants for both renewable generation and green-hydrogen production has become more expensive recently because of increased material and labor costs and constrained supply chains.

“Approximately $10 billion worth of hydrogen projects are being announced each month, based on activity over the past six months.”

Second, building up infrastructure, particularly for transportation of hydrogen, will be key. The most efficient way to transport hydrogen is through pipelines, but these largely need to be built or repurposed from current gas infrastructure. Investment is critical in this and other areas across the value chain, including electrolyzer capacity (electrolyzers use electricity to produce green hydrogen) and hydrogen refueling stations for hydrogen-powered trucks.

Third, more investments will be needed to help advance this solution. Our work with the Hydrogen Council, a CEO-led group with members from more than 140 companies, has shown that achieving a pathway to net zero would require $700 billion in investments by 2030. Despite the recent momentum, McKinsey research last year showed a $460 billion investment gap. Additionally, many announced projects still need to clear key hurdles before they can scale. Producers of clean hydrogen, for example, are looking to address the commercial side of investment risk by solidifying future demand, often in the form of purchase agreements.

A set of actions can help accelerate the hydrogen opportunity, to realize its decarbonization potential and the growth opportunity for businesses. Progress will likely require collaboration among policy makers, industries, and investors. Policy makers can continue supporting the hydrogen economy through measures such as production tax credits or by setting uptake targets. These actions should help boost private investors’ confidence in the future markets for hydrogen and hydrogen-based products. Industry can increase capacities, such as by ramping up production of electrolyzers, and build partnerships through the value chain. Investors can help industry by structuring and financing new ventures, as well as by developing standards for how hydrogen projects can be assessed and how risks can be managed.

As the energy transition unfolds, hydrogen will increasingly be a consideration for both businesses and governments. While the challenges to scaling hydrogen are real, so are the opportunities.

 

 


 

 

By  Markus Wilthaner

Source  McKinsey & Company

 

Land Rover investigates hydrogen fuel cell use with Defender prototype

Land Rover investigates hydrogen fuel cell use with Defender prototype

Jaguar Land Rover (JLR) is developing a prototype hydrogen fuel cell vehicle that is expected to be testing later this year.

The development vehicle, based on the new Land Rover Defender, will be used as a test bed to establish how a hydrogen powertrain can be optimised to deliver the necessary performance and capability required by Land Rover customers.

Ralph Clague, head of Hydrogen and Fuel Cells for Jaguar Land Rover, said: “We know hydrogen has a role to play in the future powertrain mix across the whole transport industry, and alongside battery electric vehicles, it offers another zero tailpipe emission solution for the specific capabilities and requirements of Jaguar Land Rover’s world-class line-up of vehicles.”

The engineering project, known as Project Zeus, is part funded by the government-backed Advanced Propulsion Centre. It forms part of JLR’s aim to achieve zero tailpipe emissions by 2036, and net zero carbon emissions across its supply chain, products and operations by 2039, in line with the Reimagine strategy announced last month.

 

Source Fleet News

 

“The work done alongside our partners in Project Zeus will help us on our journey to become a net zero carbon business by 2039, as we prepare for the next generation of zero tailpipe emissions vehicles,” Clague added.

 

JLR believes hydrogen fuel cell vehicles, which generate electricity from hydrogen to power an electric motor, are complimentary to battery electric vehicles (BEVs) on the journey to net zero vehicle emissions.

They provide high energy density and rapid refueling, with minimal loss of range in low temperatures, making the technology ideal for larger, longer-range vehicles, or those operated in hot or cold environments.

Since 2018, the global number of fuel cell vehicles on the road has nearly doubled, while hydrogen refueling stations have increased by more than 20%. By 2030, forecasts predict hydrogen-powered vehicle deployment could top 10 million with 10,000 refueling stations worldwide.

The prototype Defender will begin testing towards the end of 2021 in the UK to verify key attributes such as off-road capability and fuel consumption.

 


 

Source: Fleet News