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Development Prospects of China's Ferrosilicon Industry in 2023

2023-03-014298

Ferrosilicon is widely applied in the steel industry, foundry sector, metallic magnesium production and other fields. As major consumers of ferrosilicon, these industries consume more than 90% of the annual ferrosilicon output. Ferrosilicon produced in China can not only satisfy domestic demand, with a small proportion exported to other countries. At present, the global annual production capacity of ferrosilicon stands at around 11.1 million tons, among which China’s capacity reaches approximately 8 million tons, making China the world’s largest producer. In 2020, China’s ferrosilicon output hit 5.3209 million tons, representing a slight year-on-year decline. Inner Mongolia and Qinghai are China’s core ferrosilicon producing regions. Ferrosilicon demand mainly comes from steel mills, metallic magnesium manufacturers, foundries and export markets, with steel mills accounting for the largest share of domestic ferrosilicon consumption.

With the growing large-scale production of ferrosilicon, it has become a vital material for industrial manufacturing and the steel industry, especially steelmaking. After years of development, the ferrosilicon industrial chain has become increasingly complete, forming a mature operational system covering raw material mining, ferrosilicon smelting, as well as ferrosilicon processing and application. Currently, China has five major ferrosilicon producing regions: Inner Mongolia, Ningxia, Qinghai, Shaanxi and Gansu. The Inner Mongolia Autonomous Region ranks first in national ferrosilicon output, contributing about 33% of China’s total ferrosilicon production.


Forecast on the Development Prospects of China's Ferrosilicon Industry in 2023

Ferrosilicon production capacity is becoming increasingly geographically concentrated. New investors in the industry are expanding capacity in regions with larger environmental carrying capacity. Ferrosilicon electric furnaces are trending toward large-scale development and waste heat power generation. To further tap energy-saving and emission-reduction potential, cut power consumption and enhance corporate competitiveness, leading ferrosilicon enterprises are adopting large-scale furnaces combined with mature waste heat recovery and power generation technologies. Building waste heat utilization facilities and generating power from furnace waste heat will become a new industry norm in the future.

In the next three to five years, grain-oriented silicon steel is unlikely to be replaced by amorphous strips, with its market prices still led by Baowu Steel. Wangbian Electric stated that it keeps upgrading and revamping high-cost equipment such as bell furnaces to reduce power and operational expenses, expecting an annual processing cost reduction of 3% to 5%.

Technological innovation will determine the future of the ferrosilicon industry. Only through continuous technological upgrading can the industry lower energy consumption and pollutant emissions, and build a sound industrial ecosystem, which underpins healthy and sustainable development. Long-term growth relies on large-scale, intensive and sustainable operation for enterprises to expand and strengthen their presence. Currently, the industry shows an obvious capacity concentration trend. New industrial capital is deploying and expanding ferrosilicon capacity at home and abroad in regions featuring greater environmental capacity, lower labor costs, abundant labor resources, cheaper electricity prices, sufficient energy resources and great potential for developing photovoltaic and wind power. Leading enterprises are poised for further expansion, which is expected to further raise the overall concentration of the ferrosilicon industry.


According to the Research Report on Development Status and Future Prospect Forecast of China's Ferrosilicon Industry (2023-2028) issued by Zhongyan Puhua Industrial Research Institute:

Ferrosilicon is a ferroalloy composed of iron and silicon. It is smelted in electric furnaces using coke, steel scraps and quartz (or silica stone) as raw materials. Since silicon readily combines with oxygen to form silicon dioxide, ferrosilicon is widely used as a deoxidizer in steelmaking. In addition, the formation of SiO₂ releases massive heat, which helps raise molten steel temperature during deoxidation. Meanwhile, ferrosilicon serves as an alloy additive and is extensively used in low-alloy structural steel, spring steel, bearing steel, heat-resistant steel and electrical silicon steel. It also acts as a common reducing agent in ferroalloy manufacturing and chemical industries.

Semi-coke is the primary raw material for ferrosilicon. As a new type of carbon material, semi-coke is widely applied in calcium carbide production, ferroalloy smelting, blast furnace injection, boiler fuel, civil fuel, industrial gas production and many other sectors. China’s semi-coke production capacity is mainly distributed in Shaanxi, Xinjiang, Inner Mongolia, Ningxia and Hebei. Shaanxi (accounting for about 48% of national capacity) and Xinjiang (around 37.5%) are the two largest semi-coke producing regions. In Shaanxi, capacity is concentrated in Shenmu (27%) and Fugu (19%) under Yulin City, while Xinjiang’s output mainly comes from Hami, which takes up roughly 20% of national semi-coke capacity.

Following the relaxation of dual control policies, ferrosilicon output has risen and its market price has dropped sharply. It is expected that ferrosilicon prices will return to normal levels without further policy intervention. With the implementation of national industrial policies and ongoing environmental inspections, the ferroalloy industry is transforming from a scattered sector with numerous small-scale and heavily polluting manufacturers into a concentrated, large-scale, eco-friendly advanced industrial sector with heavy environmental investment. Accordingly, only standardized, large-scale leading enterprises remain in normal operation, fully benefiting from the current favorable supply-demand balance.


Source: Internet