Factors That Affect the Formability of Steel

Factors That Affect the Formability of Steel


Steel is a mixture of iron and carbon, which makes it strong and durable. It is one of the most recycled materials, with over two-thirds of North American steel fabricator being recycled every year. The steel making process involves several steps that start with raw iron. Afterwards, several other metals are added to give the metal specific properties. Steel is such a useful material that it is sometimes considered a metal in its own right.

Integrated steel plants produce between 200 and 250 kg of slag per tonne of steel. This slag contains a high percentage of iron, but it is distributed in a non-uniform manner. This slag is then crushed and subjected to magnetic separation. The slag is then recycled back into the steel making process or is used in iron making units. The iron content of steel making slag is measured in a number of ways, but it is difficult to make accurate measurements of Fe-metallic content.


Carbon steel is a form of steel with a carbon content of 0.05 to 2.1 percent by weight, according to the American Iron and Steel Institute. This form of steel is more durable than other types of steel, and it is often used in construction. Its carbon content is not detrimental to the quality of the finished product.

Carbon steel is used for construction, machinery, and other items that require high strength and durability. High-carbon steel is particularly strong and resistant to abrasion. It is also excellent at retaining shape, allowing it to withstand significant force without deforming. Unlike other types of steel, which can be easily bent or weakened under a tremendous amount of tensile stress, carbon steel is much more durable than most other materials.


Phosphorus content in steel plays a critical role in corrosion and its progression, film formation, catalytic activity, microstructures, and mechanical properties. Its increased content has detrimental effects on steel rebars in alkaline concrete pore solutions, whereas it has positive effects on structural steels in dry industrial environments.

Adding phosphorus to steel increases its brittleness and adversely affects fracture toughness. However, it can also improve the mechanical properties of steel. In addition, a high-phosphorus content in steel may cause the slag to have a low ductility.


Sulfur is an impurity that can reduce the weldability and machinability of steel. Its content in steel is usually below 0.05%. Moreover, it can cause brittleness. Therefore, it is advisable to keep the sulfur content in steel to less than 0.30 %.

To determine the amount of sulfur in steel, the metallographic structure of the material can be viewed. The sulfide is distributed mainly in spherical and flocculent forms in the steel matrix. Before heat treatment, high sulfur steels have low bearing capacity, capability and wear resistance. This makes them unsuitable for high-speed and heavy-load applications.


The amount of oxygen in steel is very important. However, steel can corrode if it contains oxygen. To determine the amount of oxygen in steel, an inert gas fusion is performed on steel samples. The results of this experiment show that the amount of oxygen in steel is less than 1%.

The oxidation of steel can be prevented by injecting elemental oxygen into the molten bath during the steel-making process. The basic oxygen furnaces include the Open Hearth Furnace and Electric Furnace. However, steel producers are well aware of the difficulty of obtaining the correct amount of oxygen in the molten metal. Especially with semi-killed steel, it is crucial to ensure the correct oxygen content of the molten metal.


Formability is the ability of sheet metal to be formed reliably and repeatedly. A good understanding of formability is crucial to successful forming. In this article, we discuss key factors that affect the formability of sheet metal. Also, we discuss the correlation between microstructure and formability. To understand formability, we must understand the underlying microstructure and its relationships with the mechanical properties of the metal.

Local and global formability maps are useful in understanding how materials respond to mechanical forces. They are a useful tool for understanding the response of materials to damage. In addition, they can be used to develop fracture criteria and damage models. Fracture strains can be measured at three locations: the fracture surface, the fracture level, and the fracture line.

Environmental impact

There are various processes in the steelmaking process that cause significant environmental impacts. The largest are those which involve the melting of iron, which affects human health and ecosystems. Other processes such as the manufacturing of scrap steel and the recycling of used steel lead to small impacts, but contribute to the overall environmental impact.

Steelmaking is one of the most common forms of metal production, accounting for nearly 90% of all metal products. Due to its plentiful supply, low cost, and good workability, steel has an extensive range of uses. However, this material is also associated with a high environmental impact throughout its entire life cycle. One way to measure this impact is by using the Life Cycle Assessment (LCA) method. This method attempts to visualize the environmental impact of a product across its entire life cycle, from the production of raw materials to the final disposal of waste.