The Future of Hydrogen: Will Digital Technologies Provide Much-Needed Oxygen to The Hydrogen Energy Business?
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The Future of Hydrogen: Will Digital Technologies Provide Much-Needed Oxygen to The Hydrogen Energy Business?

The world is rapidly changing, and so are the ways we generate energy. As environmental and macroeconomic concerns become increasingly pressing, the need for cleaner and more sustainable sources of energy grows. One potential solution to this growing global problem could be found in Hydrogen – a renewable energy source with a number of advantages over traditional sources. In this article, we'll explore how digital technologies and other factors can help accelerate the adoption of Hydrogen energy and what needs to be done to realize its full potential.

A Brief History of Hydrogen Energy

Hydrogen has been used as an energy source for over two hundred years. In the early 1800s, it was used to power street lamps in London and New York City. In 1807, Fran?ois Isaac de Rivaz designed the first internal combustion engine powered by Hydrogen. However, it wasn't until the late 19th century that Hydrogen began to be used extensively as an industrial fuel.

In the early 20th century, Hydrogen was used in zeppelins and balloons for its lifting power, and during the last decades, NASA has used Hydrogen gas as rocket fuel to launch crews and cargo into space. But, only in the 1920s did James B. S. Haldane, a British scientist, introduce the idea of renewable Hydrogen in his scientific paper by proposing that scientists would soon be able to extract oxygen and Hydrogen from water.

Today, Hydrogen is increasingly viewed as a viable alternative to fossil fuels. Hydrogen can be produced from renewable resources such as water and solar power, making it a clean and sustainable energy source. Additionally, digital technologies are making it easier and more cost-effective to produce and distribute Hydrogen. These factors are likely to help increase the adoption of Hydrogen power in the coming years.

References: https://en.wikipedia.org/wiki/Gas_lighting | https://web.itu.edu.tr/celikmuhamm/bil103/company/webpage.html | https://www.airships.net/helium-Hydrogen-airships/ | https://www.nasa.gov/topics/technology/Hydrogen/index.html | https://www.altenergymag.com/article/2009/04/the-history-of-Hydrogen/555/

Geopolitics of Hydrogen Economy: Who is Leading The Race?

The geopolitics of Hydrogen is fascinating and complex. Domestic and international politics are intertwined as countries compete for control over the production and use of this energy resource. The Hydrogen economy is still in its early stages but it has the potential to transform the global energy landscape.

A number of factors are driving the adoption of Hydrogen technologies including digital technologies that are making production and distribution more efficient. Accordingly, many countries are investing in Hydrogen infrastructure and research & development. This is creating a competitive market for Hydrogen technologies, with companies from around the world competing for a slice of the pie.

China, the United States, Japan, South Korea and Europe are the most significant players in the Hydrogen economy. These countries have made significant investments in Hydrogen technologies and are leading the way in deployment. Other countries, such as Australia, Canada and India are also active in this space but need to catch up to counterparts. With a $2 billion PLI scheme for electrolyzer production, India aims to be a global hub for green Hydrogen production and export.

Globally, interest in Hydrogen is growing. Today, electrolyzer manufacturing capacity sits at nearly 8 GW/yr and based on industry announcements, it could exceed 60 GW/yr by 2030. It is also expected that the project pipeline will continue to grow over the coming years as countries are investing in Hydrogen to help meet their climate goals and improve air quality.

In the United States, government support for Hydrogen research and development has grown in recent years. The US Department of Energy announced in Dec 2022 its intent to issue $750 million in funding to dramatically reduce the cost of clean-Hydrogen technologies. As part of the Biden Administration's comprehensive approach to accelerating the widespread adoption of clean Hydrogen, the funding will be instrumental in supporting commercial-scale Hydrogen deployment.

The geopolitical implications of the Hydrogen economy are far-reaching. With so much at stake, governments are carefully watching developments in this space and jockeying for position. The future of energy is likely determined by how these various stakeholders navigate the challenges and opportunities presented by the Hydrogen economy.

References: https://www.weforum.org/agenda/2022/02/clean-Hydrogen-energy-low-carbon-superpowers/ | https://www.financialexpress.com/industry/green-Hydrogen-pli-scheme-for-electrolyser-manufacturing-on-the-cards-says-union-power-minister-rk-singh/2326763/ | https://iea.blob.core.windows.net/assets/c5bc75b1-9e4d-460d-9056-6e8e626a11c4/GlobalHydrogenReview2022.pdf | https://www.energy.gov/articles/biden-harris-administration-announces-750-million-accelerate-clean-Hydrogen-technologies

Hydrogen Energy vs Other Renewable Sources: The Future of Energy

In the battle of Renewables, Solar and Wind have had a pretty good run so far. But their challenger, Hydrogen Energy, is starting to gain some serious traction.

Hydrogen has a few things going for it that make it a strong contender in the renewable energy race. For starters, it's incredibly versatile. It can be used to power everything from vehicles to homes to factories. Additionally, Hydrogen can be produced from a variety of sources, including water, biomass and even fossil fuels. And unlike solar and wind, which are intermittent forms of energy generation, Hydrogen can be stored and used when needed – making it a more reliable option for grid stability.

Today, most Hydrogen is produced from natural gas, a fossil fuel. However, it can also be produced from renewable sources such as solar and wind power. This clean Hydrogen can be used in fuel cells to power electric vehicles, homes, and businesses.

So what does this all mean for the future of renewable energy? Is Hydrogen the answer to our current energy problems? Only time will tell. But one thing is for sure – Hydrogen is definitely a force to be reckoned along with Wind and Solar in the world of sustainable energy.

Challenges Facing Hydrogen as an Energy Source

The challenges with Hydrogen generation, production, distribution and adoption are many - there is no infrastructure for producing or distributing Hydrogen, the generation of Hydrogen is expensive, the use of Hydrogen as a fuel is not widely adopted, the use of Hydrogen fuel cells faces significant technical challenges etc. I've elaborated on a few key challenges below -

Scalability and Cost of Production: Hydrogen production requires significant energy input and is still much more expensive than traditional fuels such as oil and natural gas. In addition, the scalability of Hydrogen production could be improved, as it requires specialized technologies to produce and store the fuel.

Storage and Distribution: Storing Hydrogen fuel can be challenging due to its low density, which means that it must be pressurized in tanks to be able to store large quantities. Additionally, its ability to combust spontaneously limits its potential as a transportation fuel as there is an additional safety risk compared to other fuels. For Hydrogen fuel cells to enter the mainstream market, infrastructure for storage and distribution would first have to be developed.

Technical Challenges: While Hydrogen-powered vehicles show some promising advances compared with gasoline or diesel engine-based vehicles, full deployment of the technology for mass adoption remains a challenge due to technical issues such as durability and cost-effectiveness of the fuel cell systems.

Finally, there are challenges associated with adopting Hydrogen as an energy source. Hydrogen technologies are still relatively new and require investment in research and development to mature. In addition, changing from a fossil fuel-based economy to a Hydrogen economy would require a major shift in social and political attitudes and behaviours.

Despite these challenges, Hydrogen offers great potential as a clean and affordable energy source. With continued research and development, it could play a key role in solving our current energy problems.

How Can Digital Technologies Fuel Hydrogen Adoption?

Digital technologies have transformed many industries and the energy sector is no exception. The rise of renewable energy sources such as solar and wind has been driven in part by advances in digital technology that have made them more cost-effective. And now, digital technologies are also playing a role in making Hydrogen an increasingly viable option for meeting our energy needs. From the production and trade of Hydrogen to its possible utilization in energy production or as a fuel for transportation, digital technologies such as AI/ML, IoT, Big Data and analytics can augment efficiency every step of the way.

In terms of production, several Internet of Things use cases based on Artificial Intelligence, Machine Learning and Big Data Analytics tools can optimize feedstock selection, compositional control and reaction parameters resulting in higher purity Hydrogen produced with fewer resources.

Predictive analytics algorithms help identify maintenance cycles pre-emptively so that they are done more timely, while robots enable faster responses on the plant floor, delivering more flexibility and parallel operations throughout the entire value chain. Additionally, ML models aid with fault predictions, lifetime prediction analysis and overall reliability improvement, helping reduce downtimes and associated costs significantly.

Moreover, big data analytics platforms provide increased visibility into consumption patterns highlighting potential opportunities for better pricing optimization leading to cost savings across organizations involved in supply chains.

These state of art technologies can be employed for load forecasting, Asset onboarding, Predictive Asset Maintenance, safe transport and storage, distribution management, Logistics management and optimized customer journey automation of all processes or assets and other tasks in the Hydrogen value chain from Production, Storage, Distribution to End Use.

Digital technologies are already playing a significant role in the adoption of the Hydrogen economy. IoT devices are being used to monitor and track the production and consumption of Hydrogen and its transportation. However, the data collected by these processes can be further analyzed using advanced real-time analytics to optimize the activities in the Hydrogen value chain and improve safety in handling Hydrogen.

Other Important Factors Contribute to The Acceleration of Hydrogen Adoption?

Other factors that contribute to the acceleration of Hydrogen adoption include:

Increased availability of renewable energy: As renewable energy sources such as solar and wind become more widespread, the need for backup power sources such as Hydrogen will increase. This is because renewables are often intermittent and cannot provide constant power on their own. Hydrogen can be used as a way to store energy from renewables so it can be used when needed.

Improved fuel cell technology: Fuel cells are one of the main ways Hydrogen can be used as an energy source. As fuel cell technology improves, it becomes a more viable option for use in a variety of applications, including vehicles and power plants. The development of a new generation of Hydrogen fuel cells is supported by advancements in digital technologies. For example, 3D printing is being used to develop more cost-effective fuel cells.

Government support: In many countries, governments are starting to recognize the potential of Hydrogen as an energy source and are providing incentives and support for its adoption. This helps to accelerate the rate at which Hydrogen is being adopted.

Reference: https://www.chemistryworld.com/news/3d-printing-cuts-fuel-cell-component-costs/7526.article

The Future Trends in The Global Hydrogen Market

As we look to the future, there are a number of trends, such as the emergence of digital technologies, a decline in the cost of renewable energy and stricter environmental regulations are likely to impact the global Hydrogen market.

These trends will likely increase the size of the global Hydrogen market over time. And while a small number of key players are supplying Hydrogen today, there is room for many new entrants to emerge as market leaders in this rapidly growing industry. Key market winners in this space are likely to be those who are able to provide cost-effective and reliable Hydrogen production, storage and distribution solutions. Additionally, those companies that can develop innovative applications for Hydrogen fuel cells are also likely to be successful.

In the coming years, the global Hydrogen market is expected to grow significantly, driven by a number of factors, including the increasing use of digital technologies, advances in fuel cell technology and increasing investment by governments and the private sector. The Hydrogen market is expected to reach $230 billion by 2030, making it one of the largest energy markets in the world.

Reference: https://www.globenewswire.com/en/news-release/2022/10/25/2541206/0/en/Global-Hydrogen-Generation-Market-Size-to-grow-USD-230-81-Billion-by-2030-CAGR-of-6-6.html

Conclusion

Hydrogen has the potential to be a game-changer in energy production. As digital technologies continue to progress and the sustainability commitments of companies and countries become more prominent, we expect Hydrogen to have an increasingly important role in solving many of our current energy problems. We must continue researching innovative methods for producing, storing and using Hydrogen to become a viable alternative for powering our businesses, homes, vehicles and communities. With these advancements, we are on a path towards achieving greater sustainability goals in terms of energy production and consumption.


#hydrogen #greenenergy #netzerocarbon #energytransition #decarbonization #digitaltransformation #technology #infosysenergypractice #infosys

Avanish kumar

Business and IT Transformation Advisor | Enterprise Architect | SAP Center of Excellence | Integrate Sustainability into ERP Programs

1 年

Thanks for sharing Avaneesh Misra !

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