Need a perfect paper? Place your first order and save 5% with this code:   SAVE5NOW

Essay on Hydrogen Technology

Executive Summary

The steel industry is the largest industrial source of greenhouse gas emissions, accounting for about 7% of total emissions globally. The decarbonization of the steel industry is essential to meet global climate goals. Hydrogen can potentially be a key technology for decarbonizing the steel industry. Hydrogen can be used in place of carbon-based fuels in the steelmaking process, reducing or eliminating emissions from the steel sector. The use of hydrogen in the steel industry is still in the early stages of development. Several technical and economic challenges need to be addressed before hydrogen can be widely adopted in the steel sector. This research report provides an overview of the potential for hydrogen in the steel industry, the challenges that need to be addressed, and the current state of development.


Steel-making is one of the most essential and significant industries in the economy. It is the process of producing steel from iron ore, one of the world’s most essential materials. Steel is used to construct buildings, bridges, railways, cars, ships, and various other infrastructures. It is also used in manufacturing a wide range of products, including appliances, tools, and machinery (Åhman, Olsson, et al. 2018). The steelmaking industry is a significant contributor to the economy in terms of its output and the value of its products. It is responsible for a significant share of employment, investment, and exports. In terms of output, the steelmaking industry is one of the largest manufacturing sectors in the world. In terms of value, steel is the second-most valuable commodity produced by the manufacturing sector after petroleum.

The steelmaking process has a large carbon footprint due to the release of carbon dioxide gas during pig iron production. In order to produce one metric ton of pig iron, approximately 1.4 metric tons of carbon dioxide gas are released into the atmosphere (Worrell, Price, Martin, et al. 2001). This gas is produced when the pig iron is heated to extreme temperatures in a furnace. The carbon dioxide gas is released when the pig iron reacts with the oxygen in the air. The high carbon dioxide emissions from steelmaking have a negative impact on the environment. Carbon dioxide is a greenhouse gas that contributes to global warming. The increased greenhouse gas emissions from steelmaking can lead to more extreme weather conditions, such as floods and hurricanes. Additionally, the carbon dioxide emissions from steelmaking can cause air pollution, leading to respiratory problems.

Despite the negative environmental impact of steelmaking, this process is essential for producing various products, including automobiles, appliances, and buildings. Steel-making will continue to be a significant source of carbon dioxide emissions. However, taking steps to reduce emissions, such as using hydrogen technology, can help to protect the environment from the harmful effects of this gas.


There are a few reasons why people are interested in decarbonizing the steelmaking industry using hydrogen. First, it would significantly reduce greenhouse gas emissions and make steel production more efficient. The steel industry is responsible for a large percentage of greenhouse gas emissions. In order to reduce these emissions, it is essential to find ways to decarbonize the steelmaking process. One way to do this is to switch to using hydrogen to make steel. Hydrogen is a clean-burning fuel and does not produce any greenhouse gas emissions. Switching to using hydrogen to make steel would reduce the steel industry’s greenhouse gas emissions by up to 90%. This would be a significant step in fighting climate change.

Hydrogen is often touted as a “clean” energy source – meaning that it produces little to no emissions when used. This makes it an attractive option for decarbonizing the steelmaking industry, which is responsible for significant greenhouse gas emissions (Blank, Molly, 2020). There are several advantages to using hydrogen to decarbonize the steelmaking industry. First, as mentioned above, it produces no emissions. This means it would help reduce the steel industry’s impact on climate change. Second, hydrogen is a very versatile fuel, which means that it can be used in a variety of ways in the steelmaking process. For example, it can power electric arc furnaces, a crucial part of the steelmaking process. Third, hydrogen is a relatively inexpensive fuel, which means that it would not raise the cost of steel production significantly.

There are also some challenges and limitations to using hydrogen to decarbonize the steelmaking industry. First, hydrogen is a highly flammable gas, which means that extra safety precautions would need to be put in place to prevent accidents. Second, hydrogen production currently relies heavily on natural gas, a significant source of greenhouse gas emissions. This means that to be “clean,” the hydrogen production process would also need to be decarbonized. Generally, hydrogen can potentially be crucial in decarbonizing the steelmaking industry. However, some challenges need to be addressed to make it a viable option. There are other competing technologies in decarbonizing the steel industry. Such technologies include electricity use (Elsheikh, Eveloy, 2022). Electricity can be used to power the steelmaking process, which can help reduce energy consumption and greenhouse gas emissions.


The production of HYBRIT steel involves a direct reduction process in which iron ore is converted into sponge iron without using coke. The sponge iron is then melted in an electric arc furnace to produce steel. The process is emissions-free, using hydrogen instead of carbon to reduce iron ore. The direct reduction process uses a reducing gas produced by reforming natural gas. The gas is then used to reduce iron ore to a solid state, meaning that the ore does not need to be melted prior to reduction (Glushchenko, 2020). The resulting sponge iron is in the form of pellets or briquettes. The sponge iron is then melted in an electric arc furnace to produce steel. In the electric arc furnace, the sponge iron is heated by an electric arc, which vaporizes the iron. The oxygen in the air then oxidizes the vaporized iron to form steel. The process of producing HYBRIT steel is emissions-free, using hydrogen instead of carbon to reduce iron ore. The process also uses less energy than traditional steel production methods.

The latest state-of-the-art developments in hydrogen technology are focused on improving electrolysis efficiency and developing new methods of producing hydrogen. One promising area of research is using renewable energy sources, such as solar or wind power, to generate the electricity needed for electrolysis (Glushchenko, 2020). Another area of research is the development of new catalysts that can be used to improve the efficiency of the electrolysis process. The potential applications of hydrogen technology are vast and exciting. In the future, hydrogen could power everything from cars and trucks to homes and businesses. With continued research and development, hydrogen technology holds great promise for a cleaner, more sustainable future.


According to research, the cost of using hydrogen to decarbonize the steelmaking industry will vary depending on the specific process and application. However, it is generally accepted that the cost of using hydrogen to replace carbon in the steelmaking process will be higher than the cost of using carbon. Hydrogen decarbonization will increase production costs significantly to $120 per ton (Fan, Friedmann, 2021). There are a number of reasons for this, including the fact that hydrogen is a less dense gas than carbon and thus requires more energy to produce the same amount of steel. In addition, the infrastructure for using hydrogen in the steelmaking process is not yet as developed as the infrastructure for using carbon, meaning that there are additional costs associated with using hydrogen.


China is the world’s largest producer of steel and iron, and it is also the largest consumer of coal. In an effort to decarbonize its steelmaking industry and reduce its reliance on coal, China is turning to hydrogen. Hydrogen can be used in place of coal in the steelmaking process, and it emits no carbon dioxide when burned. This makes it a cleaner and more environmentally friendly option for steel production (Yang, Nielsen, et al. 2022). China is working on several policies to promote the use of hydrogen in steelmaking, including investing in research and development, setting up demonstration projects, and offering financial incentives. It is also working to build a hydrogen infrastructure, including a network of refueling stations. As the world’s largest steel-producing country, China’s switch to hydrogen-powered steelmaking could significantly impact emissions. If successful, it could set an example for other heavy industries to follow suit and help to accelerate the transition to a low-carbon economy.


The top problems that need to be solved before the practical adoption of hydrogen to decarbonize steelmaking are:

  1. Cost: Hydrogen is currently more expensive than natural gas, the primary feedstock for steel production. This is a significant barrier to adoption. Currently, most hydrogen is produced from natural gas via steam methane reforming (SMR) (Blank, Molly, 2020). However, this process results in GHG emissions. The use of renewable energy to produce hydrogen via electrolysis is a more sustainable option, but it is currently more expensive. The cost of electrolyzes will need to decrease for this option to be viable on a large scale.
  2. Infrastructure: There is currently minimal hydrogen production, storage, and distribution infrastructure. This must be developed before hydrogen can be widely adopted for steel production.
  3. Technical challenges: Some technical challenges are associated with using hydrogen in steel production, such as how to best inject it into the blast furnace and prevent corrosion. These need to be addressed before hydrogen can be widely adopted.


The decarbonization of the steel industry is a daunting but necessary task. The steel industry is responsible for around 7% of global emissions, so decarbonizing it is crucial to combat climate change. Hydrogen can potentially be a key player in this decarbonization, as it can be used to replace carbon in the steelmaking process. This would result in a significant reduction in emissions and so help to address the climate crisis. Decarbonizing the steel industry is essential in the fight against climate change. A hydrogen is a valuable tool in this effort, as it can help reduce steel production emissions. However, the use of hydrogen in the steel industry is still in its early stages, and further research and development are needed to make it more widely adopted.


Åhman, M., Olsson, O., Vogl, V., Nyqvist, B., Maltais, A., Nilsson, L. J., … & Nilsson, M. (2018). Hydrogen steelmaking for a low-carbon economy. Stockholm Environment Institute..

Blank, T. K., & Molly, P. (2020). Hydrogen’s decarbonization impact for industry. Near-term challenges and long-term potential. Rocky Mountain Institute.

Elsheikh, H., & Eveloy, V. (2022). Assessment of variable solar-and grid electricity-driven power-to-hydrogen integration with direct iron ore reduction for low-carbon steel making. Fuel324, 124758.

Fan, Z., & Friedmann, S. J. (2021). Low-carbon production of iron and steel: Technology options, economic assessment, and policy. Joule5(4), 829-862.

Glushchenko, A. M. (2020). Decarbonization of the Steel Industry: the Role of State Economic Policy. Problems of Economy, (1).

Karakaya, E., Nuur, C., & Assbring, L. (2018). Potential transitions in the iron and steel industry in Sweden: towards a hydrogen-based future?. Journal of cleaner production195, 651-663.

Thomas, S., Adisorn, T., Shibata, Y., Kan, S., & Matsumoto, T. (2021). CCUS and Hydrogen Contributing to Decarbonization of Energy-intensive Industries.

Marnellos, G. E., & Klassen, T. (2020). Welcome to Hydrogen—A New International and Interdisciplinary Open Access Journal of Growing Interest in Our Society. Hydrogen1(1), 90-92.

Muslemani, H., Liang, X., Kaesehage, K., Ascui, F., & Wilson, J. (2021). Opportunities and challenges for decarbonizing steel production by creating markets for ‘green steel’products. Journal of Cleaner Production315, 128127.

Neuwirth, M., Fleiter, T., Manz, P., & Hofmann, R. (2022). The future potential hydrogen demand in energy-intensive industries-a site-specific approach applied to Germany. Energy Conversion and Management252, 115052.

Olsson, O., & Nykvist, B. (2020). Bigger is sometimes better: demonstrating hydrogen steelmaking at scale. Stockholm Environment Institute..

Wang, R. Q., Jiang, L., Wang, Y. D., & Roskilly, A. P. (2020). Energy saving technologies and mass-thermal network optimization for decarbonized iron and steel industry: A review. Journal of Cleaner Production274, 122997.

Wang, R. R., Zhao, Y. Q., Babich, A., Senk, D., & Fan, X. Y. (2021). Hydrogen direct reduction (H-DR) in steel industry—An overview of challenges and opportunities. Journal of Cleaner Production329, 129797.

Worrell, E., Price, L., Martin, N., Hendriks, C., & Meida, L. O. (2001). Carbon dioxide emissions from the global cement industry. Annual review of energy and the environment26(1), 303-329.

Yang, X., Nielsen, C. P., Song, S., & McElroy, M. B. (2022). Breaking the hard-to-abate bottleneck in China’s path to carbon neutrality with clean hydrogen. Nature Energy, 1-11.


Don't have time to write this essay on your own?
Use our essay writing service and save your time. We guarantee high quality, on-time delivery and 100% confidentiality. All our papers are written from scratch according to your instructions and are plagiarism free.
Place an order

Cite This Work

To export a reference to this article please select a referencing style below:

Copy to clipboard
Copy to clipboard
Copy to clipboard
Copy to clipboard
Copy to clipboard
Copy to clipboard
Copy to clipboard
Copy to clipboard
Need a plagiarism free essay written by an educator?
Order it today

Popular Essay Topics