Biomass in steelmaking

Under the right circumstances, biomass can be considered a carbon-free resource; therefore, it can be an attractive option to reduce emissions from iron and steel production.

Carbon capture and storage (CCS)

Carbon capture and storage (CCS)

Carbon capture and storage (CCS) describes a suite of technologies that capture waste CO2, usually from large point sources, transport it to a storage site, and deposit it where it will not enter the atmosphere.

Carbon capture use and storage (CCUS)

As is the case of carbon capture and storage (CCS), CCUS technologies separate and capture the CO2 generated during the iron and steelmaking process. The difference is that using CCS, the CO2 is stored permanently underground.

Hydrogen (H2)-based ironmaking

There are three main sources of hydrogen. ‘Green’ hydrogen is produced by combining renewable energy with electrolysis, ‘blue’ hydrogen is produced from fossil fuels in a facility equipped with carbon capture and storage (CCS), and ‘grey’ hydrogen comes from unabated fossil fuel.

Electrolysis in ironmaking

Electrolysis is a technique that uses direct electric current to separate some chemical compounds into their constituent parts. Electricity is applied to an anode and a cathode, which are immersed in the chemical to be electrolysed.

Scrap use in the steel industry

Scrap is a term used to describe steel that has reached the end of its useful life, known as ‘post-consumer scrap’ or has been generated during the manufacture of steel products, known as ‘pre-consumer scrap’.

Step Up programme

step up builds on worldsteel’s rich resource of benchmarking data and analytics and provides a robust foundation for the immediate and urgent action needed by the steel industry.

Climate Action data collection programme

The worldsteel Climate Action Recognition Programme recognises steel producers that have fulfilled their commitment to participate in the worldsteel CO2 emissions data collection programme.

Steel industry co-products

Over the past 20 years, the steel industry’s recovery rate of co-products has increased significantly. Innovative technology developments and synergies with other industries have brought the steel industry ever closer to its goal of zero-waste.

Energy use in the steel industry

The steel industry actively manages the use of energy. Energy conservation in steelmaking is crucial to ensure the competitiveness of the industry and to minimise environmental impacts, such as greenhouse gas emissions.

Steel and raw materials

Efficient use of natural resources is critical to sustainability. Steel’s great advantage is that it is 100% recyclable and can be reused infinitely. The industry uses advanced technologies and techniques to increase production yield rates and to facilitate the use of co-products. As a result of the intrinsic recyclability of steel, the value of the raw materials invested in steel production lasts far beyond the end of a steel product’s life

Advanced steel applications

Across a broad range of industries and applications, the development and use of high-performance steels help to reduce greenhouse gas (GHG) emissions.


Working in the steel industry

The steel industry offers career opportunities in many different fields and often in an international setting. Steel companies around the world also work closely with universities in the development of learning and research initiatives to develop future talent and promote innovation.