Investing in the Future of Hydrogen: A Path to Net Zero
Source: Medium
08 November 2021 – by Eric Koons Comments (0)
What is the future of hydrogen? With the increasing share of wind and solar energy, you may think that we have enough technology to replace fossil fuels and hit net-zero by 2050. But to truly move all industries away from fossil fuel, green hydrogen needs to be part of the mix. And its future looks promising.
What International Energy Agency says about the Future of Hydrogen
According to the Global Hydrogen Review 2021 executive summary published by the International Energy Agency, “hydrogen will be needed for an energy system with net-zero emissions.”
Hydrogen as an Alternative to Fossil Fuels
Hydrogen is one of the most abundant elements in the universe. For decades it has been seen as a potentially clean and alternative fuel source to fossil fuels like oil and natural gas to fulfil global energy demand. While investment into hydrogen production and development is steadily flowing, cost-effective hydrogen production is a long way off. Even producing grey hydrogen is not cheaper.
The case for hydrogen usage is substantial. It solves multiple conundrums by supporting energy independence and reducing reliance on imported energy from ships and pipelines. Any excess can be exported, creating new energy markets. The need of the hour is to expand the hydrogen use. The Transport sector can be the right target for it. Hydrogen fuel cell cars can be charged in minutes, while electric vehicles take hours.
Types of Hydrogen
Hydrogen today comes in two main types – blue and green -, but all things aren’t equal. Blue hydrogen is made from the splitting of natural gas, which creates both hydrogen and carbon dioxide. While simple, the drawback of blue hydrogen is that it needs fossil fuel like natural gas for creation and emits some in the process.
Conversely, green hydrogen is the product of splitting water into its base elements, hydrogen and oxygen, using electrolysis. And the energy used in the process is sourced from renewables, ridding it of any excess carbon emissions. To reduce carbon emissions globally and for a clean energy future, green hydrogen is necessary.
However, the differences also affect prices. For 1 kilogram of blue hydrogen, the cost hovers between USD 1.50 to 3.50. Green hydrogen moves up toward USD 3 to 7.
Currently, the cost to produce 1 kilogram of blue hydrogen is in the range of USD 1.50 to USD 3.50, and green hydrogen is closer to USD 3 to USD 7. With our current infrastructure, blue hydrogen remains significantly cheaper, but estimates put the price of green hydrogen at USD 1 to USD 2 by 2050. More affordable green hydrogen is necessary for the future of hydrogen.
The Future Cost of Green Hydrogen Production and Decreasing Prices of Renewable Energy
Bringing the cost down for green hydrogen production is critical in the global pursuit for net-zero emissions. The electrolysis process would be the primary area to reduce costs, and with renewable energy prices lowering by the day, this reality is not too far off.
Hydrogen Production with Renewable Electricity Supply
A hydrogen plant with a cost-effective and renewable electricity supply could potentially produce hydrogen for as little as USD 1.40 per kilogram. This is significantly cheaper than the USD 12.30 per kilogram cost of creating natural gas with the same electricity supply.
Investing in Green Hydrogen
Falling prices create an attractive space for investors, just like the early days of the solar PV and wind energy markets. Lower prices coupled with high energy demand are spurring a burgeoning energy investment market. And there’s plenty of room for more. Today, hydrogen takes up about 2.5% of the energy market. However, to reach net-zero by 2050, estimates suggest it will need to be closer to 20%.
With that, many hydrogen projects are still not profitable, so it remains a long-term investment in disruptive technology. But with clear goals and a large amount of interest from governments and industrial sectors worldwide, there is an investment space for green hydrogen. Disruptive and valuable investment markets have historically been some of the most lucrative – like technology in the 1990s.
Cheap Green Hydrogen and its Impacts on Asia’s Oil and Gas Industry
Read moreThe Future of Green Hydrogen
As interest in Hydrogen energy grows, costs will continue to fall. Already, green hydrogen’s costs have cascaded by 40% since 2015 and will tumble further by 40% in 2025.
While still expensive compared to fossil fuels, green hydrogen’s tipping point is USD 30 per MWh. It could viably compete with blue hydrogen in Australia, Germany and Japan at this price point. For comparison, wind and solar prices range from USD 53 to USD 153 per MWh in these countries.
Green hydrogen has a critical place in the ongoing transition away from fossil fuels. And it is especially relevant for what are now deemed “hard-to-abate industries” that are carbon-intensive with few alternatives.
Capitalising on Green Hydrogen Investment
If the historical track record of the wind and solar industries is anything to go by, then green hydrogen is increasingly looking like a promising investment.
Ironically, one of the most well-equipped industries to invest in the future of hydrogen is the fossil fuel industry. There is a significant overlap in skills and logistics, making hydrogen a natural investment pathway for fossil fuel companies.
As the globe continues to push for net-zero, the demand for alternative clean energy sources will grow, and so it seems green hydrogen will follow in its wake.
by Eric Koons
Eric is a passionate environmental advocate that believes renewable energy is a key piece in meeting the world’s growing energy demands. He received an environmental science degree from the University of California and has worked to promote environmentally and socially sustainable practices since. Eric’s expertise extends across the environmental field, yet he maintains a strong focus on renewable energy. His work has been featured by leading environmental organizations, such as World Resources Institute and Hitachi ABB Power Grids.
Read more